mhurhangee/ep-ind-claims huggingface dataset:
Electrical connecting module for electrically contacting two contact elements, comprising - a first structural unit, which has at least one first contact element (101, 102) and one first magnet element, and - a second structural unit, which has at least one second contact element (220, 221) and one second magnet element, wherein - the first structural unit can be attached to the second structural unit in a closing direction for the purpose of closing the electrical connecting module, and - the first structural unit or at least one assembly of the first structural unit, which assembly comprises the first contact element (101, 102) and the first magnet element, can be moved relative to the second structural unit in an opening direction, which differs from the closing direction and is not directed opposite to the said closing direction, for the purpose of opening from a closed position, wherein, in the closed position, the first structural unit and the second structural unit are mechanically latched to one another against the closing direction for retaining purposes, wherein a latching device for latching the structural units (1, 2) to one another is arranged on the second structural unit, wherein the latching device has the at least one second contact element (220, 221), characterized in that the latching device has at least one latching element (220, 221) which is movable in relation to a housing of the second structural unit and realizes the at least one second contact element for electrical contacting with the at least one first contact element (101, 102) of the first structural unit, wherein the at least one first contact element (101, 102) for electrical contacting with the at least one latching element (220, 221) of the latching device of the second structural unit, which at least one latching element realizes the at least one second contact element, is arranged on a latching element of the first structural unit. - a first structural unit, which has at least one first contact element (101, 102) and one first magnet element, and - a second structural unit, which has at least one second contact element (220, 221) and one second magnet element, - the first structural unit can be attached to the second structural unit in a closing direction for the purpose of closing the electrical connecting module, and - the first structural unit or at least one assembly of the first structural unit, which assembly comprises the first contact element (101, 102) and the first magnet element, can be moved relative to the second structural unit in an opening direction, which differs from the closing direction and is not directed opposite to the said closing direction, for the purpose of opening from a closed position,
A composition comprising a stable aqueous dispersion of a binder suitable for a coating composition selected from aqueous dispersions of acrylic, styrene-acrylic, vinyl ester-acrylic, vinyl ester-ethylene, silicone, urethane, vinylidene halide, and vinyl halide polymer particles having a T g in the range of from -60 °C to 60 °C, characterized in that the composition further comprises a phosphate salt of the following compound: where n is from 2 to 6; p is 1, 2 or 3; q is 1 to 5; one of R 1 and R 2 is H, CH 3, or CH 2 CH 3, and the other of R 1 and R 2 is H; and wherein the concentration of the phosphate is from 0.01 to 0.5 weight percent, based on the weight of the binder.
An internal combustion engine control device comprising: a variable compression ratio mechanism configured to change a compression ratio of an internal combustion engine; an electric motor for driving the variable compression ratio mechanism; a predicted intake air volume calculation means for calculating, based on an engine load of the internal combustion engine, a predicted intake air volume (Qc(t+Tact)) drawn into a cylinder after a prescribed time (Tact) has expired from a current point of time, the prescribed time (Tact) being a time corresponding to a response delay time of the variable compression ratio mechanism; a target compression ratio calculation means for calculating, based on the predicted intake air volume (Qc(t+Tact)) calculated by the predicted intake air volume calculation means, a target compression ratio (ε(t+Tact)) after expiration of the prescribed time (Tact) from the current point of time,; and a control command calculation means (S6, S61-S65) for calculating a control command (t) to the variable compression ratio mechanism so as to bring an actual compression ratio (εr(t+Tact)) into accordance with the target compression ratio (ε(t+Tact)), characterized in that the prescribed time (Tact) is corrected based on a temperature (Tmo(t)) of the electric motor and a source voltage (VB(t)) of the electric motor. a variable compression ratio mechanism configured to change a compression ratio of an internal combustion engine; an electric motor for driving the variable compression ratio mechanism; a predicted intake air volume calculation means for calculating, based on an engine load of the internal combustion engine, a predicted intake air volume (Qc(t+Tact)) drawn into a cylinder after a prescribed time (Tact) has expired from a current point of time, the prescribed time (Tact) being a time corresponding to a response delay time of the variable compression ratio mechanism; a target compression ratio calculation means for calculating, based on the predicted intake air volume (Qc(t+Tact)) calculated by the predicted intake air volume calculation means, a target compression ratio (ε(t+Tact)) after expiration of the prescribed time (Tact) from the current point of time,; and a control command calculation means (S6, S61-S65) for calculating a control command (t) to the variable compression ratio mechanism so as to bring an actual compression ratio (εr(t+Tact)) into accordance with the target compression ratio (ε(t+Tact)), characterized in that the prescribed time (Tact) is corrected based on a temperature (Tmo(t)) of the electric motor and a source voltage (VB(t)) of the electric motor.
A pin bone removal apparatus for removing pin bones in fish fillets (106, 123-125) while the fish fillets are conveyed by a conveyor means at a first conveying speed, comprising: • a plurality of pin bone removal units (101, 120-122), for pulling the pin bones from the fish fillets, and wherein the apparatus further comprises: • a closed loop rail structure to which the plurality of pin bone removal units are slideable attached to, where the closed loop rail structure comprises a processing section, and a returning section, the processing section being a section where at least one of the plurality of pin bone removal units are moved parallel to said fish fillets at a second conveying speed and engage with the surface of the fish fillets while removing the pin bones therefrom with said pin bone removal unit where subsequent to the pin bone removal the at least one pin bone removal unit is recirculated along said returning section and back to a starting position of said processing section where the pin bone removal process is repeated on forthcoming fish fillets, characterized in that each of the pin bone removal units comprises a pin bone roller. • a plurality of pin bone removal units (101, 120-122), for pulling the pin bones from the fish fillets, and • a closed loop rail structure to which the plurality of pin bone removal units are slideable attached to, where the closed loop rail structure comprises a processing section, and a returning section, the processing section being a section where at least one of the plurality of pin bone removal units are moved parallel to said fish fillets at a second conveying speed and engage with the surface of the fish fillets while removing the pin bones therefrom with said pin bone removal unit where subsequent to the pin bone removal the at least one pin bone removal unit is recirculated along said returning section and back to a starting position of said processing section where the pin bone removal process is repeated on forthcoming fish fillets, characterized in that each of the pin bone removal units comprises a pin bone roller.
An oligonucleotide which targets a Brain derived neurotrophic factor (BDNF) natural antisense transcript for use as a therapeutic compound, wherein the oligonucleotide increases the expression of a Brain derived neurotrophic factor (BDNF), wherein the natural antisense transcript has the nucleic acid sequence as set forth in SEQ ID NO: 2, or a variant thereof which retains the function of the natural antisense transcript of SEQ ID NO: 2.
A power receiving connector, which can be placed in a vehicle as a vehicle-mounted feeding port and can be connected with two feeder wires (31, 32) to be used for power feeding, with a ground wire, and with a control wire configured to transmit a control signal to be used for power feeding control, comprising inside a housing of the power receiving connector: a plurality of connection terminals (11a, 11b, 11c, 11d) to be connected with the two feeder wires (31, 32), the ground wire and the control wire; and a plurality of internal wirings (111, 112, 113, 114) to be connected with the two feeder wires (31, 32), the ground wire and the control wire via the connection terminals (11a, 11b, 11c, 11d); characterized by further comprising inside the housing: a wiring branch part (113a, 114a) provided at each of internal wiring to be connected with the ground wire and internal wiring to be connected with the control wire; and a capacitor (115a, 116a), which is interposed in one or both of a ground wire side branch line that branches from the wiring branch part at a ground wire side and a control wire side branch line that branches from the wiring branch part at a control wire side, configured to pass a signal of a band to be used for a communication signal, which is different from the control signal. a plurality of connection terminals (11a, 11b, 11c, 11d) to be connected with the two feeder wires (31, 32), the ground wire and the control wire; and a plurality of internal wirings (111, 112, 113, 114) to be connected with the two feeder wires (31, 32), the ground wire and the control wire via the connection terminals (11a, 11b, 11c, 11d); characterized by further comprising inside the housing: a wiring branch part (113a, 114a) provided at each of internal wiring to be connected with the ground wire and internal wiring to be connected with the control wire; and a capacitor (115a, 116a), which is interposed in one or both of a ground wire side branch line that branches from the wiring branch part at a ground wire side and a control wire side branch line that branches from the wiring branch part at a control wire side, configured to pass a signal of a band to be used for a communication signal, which is different from the control signal. a wiring branch part (113a, 114a) provided at each of internal wiring to be connected with the ground wire and internal wiring to be connected with the control wire; and a capacitor (115a, 116a), which is interposed in one or both of a ground wire side branch line that branches from the wiring branch part at a ground wire side and a control wire side branch line that branches from the wiring branch part at a control wire side, configured to pass a signal of a band to be used for a communication signal, which is different from the control signal.
A gesture detection system comprising at least one linear capacitive slider sensor and an accelerometer, wherein a sensor surface of the at least one linear capacitive slider sensor is integrable on an outer surface of a computer-controlled device, wherein the capacitive slider sensor is configured to detect movements of a finger moving along a longitudinal direction on the sensor surface from one edge of the sensor surface to a second edge opposite the first edge, - wherein the gesture detection system is configured to interpret different detected finger movement patterns across the sensor surface as different gestures, - characterised in that the interpretation of a respective one of respective finger movement combinations is performed when the linear capacitive slider sensor detects that a finger is lifted at the first edge or the second edge of the sensor surface after at least one finger movement has been detected across the sensor surface in any direction between the first edge and the second edge, - wherein a defined number of tappings registered by the accelerometer is used to qualify a detected finger movement on the linear capacitive slider sensor surface. - wherein the gesture detection system is configured to interpret different detected finger movement patterns across the sensor surface as different gestures, - characterised in that the interpretation of a respective one of respective finger movement combinations is performed when the linear capacitive slider sensor detects that a finger is lifted at the first edge or the second edge of the sensor surface after at least one finger movement has been detected across the sensor surface in any direction between the first edge and the second edge, - wherein a defined number of tappings registered by the accelerometer is used to qualify a detected finger movement on the linear capacitive slider sensor surface.
An acoustic device for forming a wall of sound underwater, said device comprising two or more transducers each connected to an acoustic waveguide, the waveguide comprising one or more projections, whereby sound generated by the transducers travels along the projection or projections to form the wall of sound, characterised in that the projection or the projections are formed from a gas containing foam material.
A process device comprising a wind-based power generation module for converting wind energy proximate the process device into electricity, the device comprising: a controller (35, 362); a wireless communications module (32, 366) coupled to the controller (35, 362); wherein: the wind-based power generation module (602, 620) is disposed within the process device, the power generation module being coupled to the controller (35, 362) and to the wireless communications module (32, 366), and the wind-based power generation module includes at least one wind moveable airfoil (624, 628, 630), said at least one airfoil being coupled to a piezoelectric element, wherein: the at least one wind moveable airfoil is coupled to a beam; and the piezoelectric element transforms displacement of the beam by the at least one wind movable airfoil into electric energy. a controller (35, 362); a wireless communications module (32, 366) coupled to the controller (35, 362); wherein: the wind-based power generation module (602, 620) is disposed within the process device, the power generation module being coupled to the controller (35, 362) and to the wireless communications module (32, 366), and the wind-based power generation module (602, 620) is disposed within the process device, the power generation module being coupled to the controller (35, 362) and to the wireless communications module (32, 366), and the wind-based power generation module includes at least one wind moveable airfoil (624, 628, 630), said at least one airfoil being coupled to a piezoelectric element, wherein: the at least one wind moveable airfoil is coupled to a beam; and the piezoelectric element transforms displacement of the beam by the at least one wind movable airfoil into electric energy. the at least one wind moveable airfoil is coupled to a beam; and the piezoelectric element transforms displacement of the beam by the at least one wind movable airfoil into electric energy.
Electronic user interface, having an appliance front panel with an inner face, at least one input and/or output means arranged on the appliance front panel and at least one panel part which has an electrically conducting surface and is designed without protective earthing, characterised by an electronic module arranged behind the inner side of the appliance front panel and a shielding apparatus shielding the electronic module of the at least one electrically conducting panel part from electrical and/or magnetic fields, wherein the input and/or output means has an actuating section and the actuating section has the electrically conducting panel part or the actuating section is the electrically conducting panel part.
A hearing aid system comprising a first hearing aid with a first housing accommodating a first speaker and a second hearing aid with a second housing accommodating a second speaker, and wherein the first and second housings are configured to be worn at a user's respective ears for emission of sound from the speakers (42A, 42B) towards the respective ears of the user, a spouse microphone for picking up speech from a speaker equipped with the spouse microphone and converting the speech into an input signal for a binaural filter (32A-R, 32A-L) configured for receiving the input signal from the spouse microphone and connected to the first and second speakers (42A, 42B) and having a directional transfer function for providing a binaural signal (36A-R, 36A-L) to the first and second speakers (42A, 42B), whereby the input signal from the spouse microphone is perceived by the user to be emitted by the spouse microphone positioned in a direction defined by the directional transfer function, and a control device configured for control of the hearing aid system, the control device having a display configured to display a movable symbol (102', 104', 106') indicating a position of the spouse microphone with relation to the user, a processor coupled for control of the display, and a user interface for user positioning of the movable symbol (102', 104', 106') on the display, and wherein the processor is further configured to control selection of the directional transfer function of the binaural filter (32A-R, 32A-L) based at least in part on a position of the movable symbol (102', 104', 106') on the display. a display configured to display a movable symbol (102', 104', 106') indicating a position of the spouse microphone with relation to the user, a processor coupled for control of the display, and a user interface for user positioning of the movable symbol (102', 104', 106') on the display, and wherein
A process for the manufacture of the pallet block with the density within the range of 600-750 kg/m3 comprising a particulate material glued with a binding material, said binding material being in the form of an urea-formaldehyde resin and melamine-formaldehyde resin mixture, wherein the particulate material contains a chipboard waste in amounts of 70 to 90% by weight and a MDF or HDF waste in amounts of 10 to 30% by weight, which comprises the steps of: (a) preparing chips from the source material, (b) charging the chips prepared in the step (a) and secondary comminution thereof, (c) drying the chips of the step (b), (d) sieving the chips prepared in the step (c), (e) buffering the chips of the step (d) and metering thereof, (f) gluing chips with the urea-formaldehyde resin and melamine-formaldehyde resin mixture, (g) compression molding of the glued chips into the form of strips, the strips being cut lengthwise to the shapes of the blocks, (h) conditioning and storage of the blocks prepared in the step (g), wherein for the manufacture of the chips in the step (a) the material of the chipboard waste and HDF or MDF board waste is used as a source material, the chipboard content being from 70 to 90%, and the content of the MDF or HDF board waste being from 10 to 30% by weight, wherein chipboard and HDF/MDF waste comprise already hardened bonding agent, such as the set melamine resin. (a) preparing chips from the source material, (b) charging the chips prepared in the step (a) and secondary comminution thereof, (c) drying the chips of the step (b), (d) sieving the chips prepared in the step (c), (e) buffering the chips of the step (d) and metering thereof, (f) gluing chips with the urea-formaldehyde resin and melamine-formaldehyde resin mixture, (g) compression molding of the glued chips into the form of strips, the strips being cut lengthwise to the shapes of the blocks, (h) conditioning and storage of the blocks prepared in the step (g), wherein for the manufacture of the chips in the step (a) the material of the chipboard waste and HDF or MDF board waste is used as a source material, the chipboard content being from 70 to 90%, and the content of the MDF or HDF board waste being from 10 to 30% by weight, wherein chipboard and HDF/MDF waste comprise already hardened bonding agent, such as the set melamine resin.
A computer-implemented method performed by a computer comprised system for handling variations in a mark printed by a group of industrial printers, wherein the system is adapted to be connected to the group of industrial printers, the method comprising: obtaining (310, 401, 402, 501, 502, 603) images of the printed mark printed by each of the printers in the group; creating (310, 401, 402, 501, 502, 604) a composite image from the obtained images, wherein the printed marks appear as a repeating pattern in the composite image; comparing (320, 403, 503, 605) the printed marks in the composite image to each other or to another mark; detecting (320, 403, 503, 606) variations with a first resolution in the printed marks in the composite image as a result of the comparison; characterised by creating (320, 403, 503, 608) an augmented image in which the detected variations between the marks are magnified; and displaying (330, 404, 610) the augmented image on a user interface. obtaining (310, 401, 402, 501, 502, 603) images of the printed mark printed by each of the printers in the group; creating (310, 401, 402, 501, 502, 604) a composite image from the obtained images, wherein the printed marks appear as a repeating pattern in the composite image; comparing (320, 403, 503, 605) the printed marks in the composite image to each other or to another mark; detecting (320, 403, 503, 606) variations with a first resolution in the printed marks in the composite image as a result of the comparison; characterised by creating (320, 403, 503, 608) an augmented image in which the detected variations between the marks are magnified; and displaying (330, 404, 610) the augmented image on a user interface.
An in vitro method for identifying a skin wound in an individual as being a non-healing skin wound or healing skin wound, the method comprising: a) measuring i) the proliferation of primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and/or ii) the fibroblast-derived matrix formation by primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and b) identifying the skin wound as being a non-healing skin wound in case the value(s) obtained in i) and/or ii) is/are below a control value established in the absence of wound exudate, or identifying the skin wound as being a healing skin wound in case the value(s) obtained in i) and/or ii) is/are equal to or above a control value established in the absence of wound exudate, preferably wherein the value(s) in a) is/are measured at least in triplicate and/or a statistical significance is established. a) measuring i) the proliferation of primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and/or ii) the fibroblast-derived matrix formation by primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and i) the proliferation of primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and/or ii) the fibroblast-derived matrix formation by primary fibroblast cells in the presence of a wound exudate sample obtained from said skin wound, and b) identifying the skin wound as being a non-healing skin wound in case the value(s) obtained in i) and/or ii) is/are below a control value established in the absence of wound exudate, or identifying the skin wound as being a healing skin wound in case the value(s) obtained in i) and/or ii) is/are equal to or above a control value established in the absence of wound exudate, preferably wherein the value(s) in a) is/are measured at least in triplicate and/or a statistical significance is established.