mhurhangee/ep-ind-claims huggingface dataset:
A lighting device for fixing to a mobile apparatus comprising - a luminous element and - a retaining element, characterized in that - the luminous element is fixed to a first end section of a first bistable element and the retaining element is fixed to a second end section of the first bistable element opposing the first one, wherein - the first bistable element is rolled out in a first stable state such that the luminous element is maximally spaced from the retaining element, - the first bistable element is rolled up in a second stable state, and - the lighting device is clampable to the mobile apparatus by spring force of the first bistable element, wherein - the luminous element and/or the retaining element are each fixed to the respective end section of the first bistable element with an elastic spring element, wherein the lighting device has a bracket-like shape in cross-section with the first bistable element in its first stable state and the spring elements in their relaxed state. - a luminous element and - a retaining element, characterized in that - the luminous element is fixed to a first end section of a first bistable element and the retaining element is fixed to a second end section of the first bistable element opposing the first one, wherein - the first bistable element is rolled out in a first stable state such that the luminous element is maximally spaced from the retaining element, - the first bistable element is rolled up in a second stable state, and - the lighting device is clampable to the mobile apparatus by spring force of the first bistable element, wherein - the luminous element and/or the retaining element are each fixed to the respective end section of the first bistable element with an elastic spring element, wherein the lighting device has a bracket-like shape in cross-section with the first bistable element in its first stable state and the spring elements in their relaxed state.
A method for password control, comprising: pre-allocating, by a combination lock, a network address to a mobile terminal; receiving, by the combination lock, an account and a login password sent by the mobile terminal through a network by using the pre-allocated network address; when the account and the login password match an account and a login password pre-allocated to the mobile terminal, sending, by the combination lock, prompt information for inputting an unlock password to the mobile terminal; receiving, by the combination lock, the unlock password that is sent by the mobile terminal through the network; matching, by the combination lock, the unlock password with an unlock password preset for the mobile terminal; and when the unlock password matches the unlock password preset for the mobile terminal, executing, by the password, an unlock operation. pre-allocating, by a combination lock, a network address to a mobile terminal; receiving, by the combination lock, an account and a login password sent by the mobile terminal through a network by using the pre-allocated network address; when the account and the login password match an account and a login password pre-allocated to the mobile terminal, sending, by the combination lock, prompt information for inputting an unlock password to the mobile terminal; receiving, by the combination lock, the unlock password that is sent by the mobile terminal through the network; matching, by the combination lock, the unlock password with an unlock password preset for the mobile terminal; and when the unlock password matches the unlock password preset for the mobile terminal, executing, by the password, an unlock operation.
Method for applying a spraying liquid on an agricultural area by means of a spraying device, preferably a field sprayer, and/or for operating a spraying device, preferably a field sprayer, wherein at least one spraying agent is diluted with a carrier liquid to produce a spraying liquid which can be applied, and is applied, wherein the spraying agent contains at least one active substance, wherein a plurality of concentrated pre-mixing liquids are produced from a quantity of the at least one spraying agent and a quantity of carrier liquid and/or stored, and said pre-mixing liquids for application are diluted with a further quantity of carrier liquid to provide the spraying liquid which can be applied, and characterized in that each of the pre-mixing liquids is stored in each case in at least one separate pre-mixing container (28a, 28b, 28c).
An apparatus for assessing the severity of stenosis in a blood vessel, comprising: an elongate body (160, 182, 181) including a proximal portion and a distal portion, the body defining a lumen extending through at least the distal portion, the lumen sized and shaped to allow the passage of a guidewire therethrough; a centering assembly disposed at the distal portion of the elongate body comprising elongated deformable legs (210,212,214) being actuatable to contact the inner walls of the blood vessel and selectively center the elongate body in particular in the middle of the vessel; the centering assembly further comprising first sensors configured to detect displacement of the deformable legs; a second sensor (186, 188) disposed adjacent the centering assembly, the sensor being configured to detect fluid pressure and/or flow in the vessel; and a processing system configured to receive the measured pressure and/or flow from the second sensor, determine the size of the vessel based on the measurement information provided by the first sensors, receive data representing the cross-sectional area of the distal portion, calculate an offset correlation (β) based on the size of the distal portion and based on the size of the vessel, and calculate a fractional flow reserve for the vessel as an index of stenosis severity taking into account the offset correlation and the measured fluid pressure and/or flow from the second sensor. an elongate body (160, 182, 181) including a proximal portion and a distal portion, the body defining a lumen extending through at least the distal portion, the lumen sized and shaped to allow the passage of a guidewire therethrough; a centering assembly disposed at the distal portion of the elongate body comprising elongated deformable legs (210,212,214) being actuatable to contact the inner walls of the blood vessel and selectively center the elongate body in particular in the middle of the vessel; the centering assembly further comprising first sensors configured to detect displacement of the deformable legs; a second sensor (186, 188) disposed adjacent the centering assembly, the sensor being configured to detect fluid pressure and/or flow in the vessel; and a processing system configured to receive the measured pressure and/or flow from the second sensor, determine the size of the vessel based on the measurement information provided by the first sensors, receive data representing the cross-sectional area of the distal portion, calculate an offset correlation (β) based on the size of the distal portion and based on the size of the vessel, and calculate a fractional flow reserve for the vessel as an index of stenosis severity taking into account the offset correlation and the measured fluid pressure and/or flow from the second sensor.
A method of coupling reference signals of a wireless network, the method comprising: establishing a wireless connection with a wireless device, wherein the wireless connection comprises a first reference signal and a second reference signal and each of the first and second reference signals (135b, 135a) are associated with one or more antenna ports; determining a mapping between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal, wherein the mapping indicates, to the wireless device, that there is a one-to-one relationship between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal, and that channel estimation is based on both the first reference signal and the second reference signal; communicating the mapping of antenna ports to the wireless device; and transmitting the first reference signal and the second reference signal to the wireless device according to the communicated mapping, wherein the first reference signal comprises a demodulation reference signal, DMRS, and the second reference signal comprises a cell-specific reference signal, CRS. establishing a wireless connection with a wireless device, wherein the wireless connection comprises a first reference signal and a second reference signal and each of the first and second reference signals (135b, 135a) are associated with one or more antenna ports; determining a mapping between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal, wherein the mapping indicates, to the wireless device, that there is a one-to-one relationship between the one or more antenna ports associated with the first reference signal and the one or more antenna ports associated with the second reference signal, and that channel estimation is based on both the first reference signal and the second reference signal; communicating the mapping of antenna ports to the wireless device; and transmitting the first reference signal and the second reference signal to the wireless device according to the communicated mapping, wherein the first reference signal comprises a demodulation reference signal, DMRS, and the second reference signal comprises a cell-specific reference signal, CRS.
Energy storage system comprising a housing in which a plurality of storage cells are arranged, wherein the storage cells are thermally insulated from one another by means of a device arranged between the storage cells, wherein the device is designed in such a way that the storage cells are spaced apart from one another, wherein the device is formed from temperature-resistant material, characterized in that the device has raised portions and recessed portions, and in that the device contains a material which is subject to an endothermic chemical conversion when it exceeds a temperature of 200°C. characterized in that the device has raised portions and recessed portions, and in that the device contains a material which is subject to an endothermic chemical conversion when it exceeds a temperature of 200°C.
Method for producing stents, in particular for cardiovascular intervention, wherein at least one cylindrical hollow body is formed, in each case from individual layers applied one on top of the other, by a three-dimensional screen printing process with at least one suspension formed with a metal powder and at least one binder, and then organic constituents of the at least one suspension are driven out of the at least one hollow body and the at least one hollow body is sintered in a heat treatment, and the inner and/or outer surface of the at least one sintered hollow body is smoothed by plastic deformation; wherein the surface of a sintered hollow body is smoothed by drawing or pressing the sintered hollow body over a mandrel, which is conical and/or the diameter of which is larger than the smallest internal diameter of the sintered hollow body, and/or through a die with a hole diameter which is smaller than the largest external diameter of the sintered hollow body.
A bracket for a cooling module in a front end structure of a vehicle, the bracket comprising: forward crash-box connection means; cooling module connection means; and a rigid arm extending between the forward crash-box connection means at a forward side and the cooling module connection means at a rearward side; characterised in that the bracket further comprises: rear crash-box connection means; and a break-away arm extending from the rearward side of the rigid arm to the rear crash-box connection means. forward crash-box connection means; cooling module connection means; and a rigid arm extending between the forward crash-box connection means at a forward side and the cooling module connection means at a rearward side; characterised in that the bracket further comprises: rear crash-box connection means; and a break-away arm extending from the rearward side of the rigid arm to the rear crash-box connection means. rear crash-box connection means; and a break-away arm extending from the rearward side of the rigid arm to the rear crash-box connection means.
A sensor assembly for detecting at least one analyte in a body fluid, comprising at least one control part, the control part having: - at least one body mount configured for attachment to a body of a user; - at least one electronics unit attachable to the body mount, having at least one electronics component for one or more of controlling the detection of the analyte or transmitting measurement data to another component; wherein the body mount includes a locking mechanism having at least one lever pivotably mounted to the body mount, the lever being configured to lock the electronics unit to the body mount, wherein the lever has at least one open position in which the electronics unit is removable from the body mount and at least one closed position in which the electronics unit is locked to the body mount, wherein, with the electronics unit attached to the body mount and the lever being in the closed position, the electronics unit exerts a force onto the lever which keeps the lever in the closed position, wherein the lever is pivotable about a pivot axle, characterized in that the lever comprises a lever arm on one side of the pivot axle and an extension on an opposing side of the pivot axle, wherein the electronics unit, when attached to the body mount and the lever being in the closed position, exerts a force onto the extension, thereby forcing the lever into the closed position or keeping the lever in the closed position. - at least one body mount configured for attachment to a body of a user; - at least one electronics unit attachable to the body mount, having at least one electronics component for one or more of controlling the detection of the analyte or transmitting measurement data to another component;
An audio interface adapter device, comprising an audio interface, wherein the audio interface comprises a pin 1, a pin 2, a pin 3 and a pin 4, the pin 1 and/or the pin 2 is used as an audio pin of the audio interface; one of the pin 3 and the pin 4 is used as a microphone pin, and the other one of the pin 3 and the pin 4 is used as a ground pin; the audio pin is connected with the pin 3 via a first unidirectional conductive element, and connected with the pin 4 via a second unidirectional conductive element; a conductive direction of the first unidirectional conductive element is from the audio pin to the pin 3; a conductive direction of the second unidirectional conductive element is from the audio pin to the pin 4; when the pin 1 is used as the audio pin, the pin 1 is connected with the pin 3 via the first unidirectional conductive element, and connected with the pin 4 via the second unidirectional conductive element, a conductive direction of the first unidirectional conductive element is from the pin 1 to the pin 3, and a conductive direction of the second unidirectional conductive element is from the pin 1 to the pin 4; when the pin 2 is used as the audio pin, the pin 2 is connected with the pin 3 via the first unidirectional conductive element, and connected with the pin 4 via the second unidirectional conductive element, the conductive direction of the first unidirectional conductive element is from the pin 2 to the pin 3, and the conductive direction of the second unidirectional conductive element is from the pin 2 to the pin 4; when the pin 1 and the pin 2 are used as the audio pins, each of the pin 1 and the pin 2 is connected with the pin 3 via the first unidirectional conductive element, and each of the pin 1 and the pin 2 is connected with the pin 4 via the second unidirectional conductive element, in which the conductive direction of the first unidirectional conductive element is from the pin 1 to the pin 3 and from the pin 2 to the pin 3, and the conductive direction of the second unidirectional conductive element is from the pin 1 to the pin 4 and from the pin 2 to the pin 4.
An apparatus configured to: monitor a runtime power consumption of two or more of a plurality of hardware components in a platform to obtain a plurality of runtime power determinations, wherein to obtain one or more of the plurality of runtime power determinations the apparatus is configured to measure power drawn from a voltage rail of the platform, conduct an analog to digital conversion of the measured power drawn, accumulate the measured power drawn for a time period, write the measured power drawn to a result register entry corresponding to the voltage rail, expose one or more of the plurality of runtime power determinations to an operating system associated with the platform, wherein the apparatus is further configured to expose a table to the operating system, wherein the table comprises information to identify a voltage rail for two or more of the plurality of hardware components, and control the voltage rail based on a throttle value of a control register. monitor a runtime power consumption of two or more of a plurality of hardware components in a platform to obtain a plurality of runtime power determinations, wherein to obtain one or more of the plurality of runtime power determinations the apparatus is configured to measure power drawn from a voltage rail of the platform, conduct an analog to digital conversion of the measured power drawn, accumulate the measured power drawn for a time period, write the measured power drawn to a result register entry corresponding to the voltage rail, expose one or more of the plurality of runtime power determinations to an operating system associated with the platform, wherein the apparatus is further configured to expose a table to the operating system, wherein the table comprises information to identify a voltage rail for two or more of the plurality of hardware components, and control the voltage rail based on a throttle value of a control register.
A film comprising a polyethylene composition comprising monomers of ethylene and butene, the film having a haze < 8.8 %, as determined by ASTM D-1003, the polyethylene composition having a long chain branching index of: 0.5 < g'avg < 0.9 as described in paragraph of the description; a melt flow rate of > (49.011 x MI (-0.4304)) as determined by ASTM D-1238-F, where MI is Melt Index as determined by ASTM-D-1238-E; and a Mw/Mn of ≤ 4.6.
A method to strain a sawing device blade made of magnetic material to a chosen sawing line and to steer it to stay on said line, characterized in that by means of first elements, which generate magnetic force to the blade and are placed in regard to the blade before and after the object to be sawn, a sawing tightness is strained to the blade by moving said blade sidewise to the sawing line, said sawing line is formed in a sawing portion between said first elements, and by means of said first elements, the blade is continuously affected without contact during sawing in order to adjust the blade portion locating between said first elements to stay on sawing line.
A heat pipe comprising: a) a microchannel heat absorber (101, 102, 103, 104, 116) comprising at least one layer defining a plurality of microchannels (16, 38) having a cross-sectional dimension of less than 1000 microns and terminating at a first end thereof in a cool side manifold and at a second end thereof in a warm side manifold, the microchannels (16, 38) adapted to contain a liquid working fluid that absorbs heat and forms a vapor upon flowing therethrough from the first end to the second end, b) a heat sink (13, 105, 106, 152, 156) for receiving and condensing the vapor to reform the liquid working fluid and for discharging the liquid working fluid, and c) one or more pipes (30, 32, 36, 40) flowably connecting the warm side manifold of the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106, 152, 156) and flowably connecting the cool side manifold of the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106, 152, 156), wherein the one or more pipes (30, 32, 36, 40) are connected so as to permit simultaneous flow of the vapor from the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106,152, 156) and of the liquid working fluid from the heat sink (13, 105, 106, 152, 156) to the heat absorber (101, 102, 103, 104, 116) when heat is applied to the heat absorber (101, 102, 103, 104, 116). a) a microchannel heat absorber (101, 102, 103, 104, 116) comprising at least one layer defining a plurality of microchannels (16, 38) having a cross-sectional dimension of less than 1000 microns and terminating at a first end thereof in a cool side manifold and at a second end thereof in a warm side manifold, the microchannels (16, 38) adapted to contain a liquid working fluid that absorbs heat and forms a vapor upon flowing therethrough from the first end to the second end, b) a heat sink (13, 105, 106, 152, 156) for receiving and condensing the vapor to reform the liquid working fluid and for discharging the liquid working fluid, and c) one or more pipes (30, 32, 36, 40) flowably connecting the warm side manifold of the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106, 152, 156) and flowably connecting the cool side manifold of the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106, 152, 156), wherein the one or more pipes (30, 32, 36, 40) are connected so as to permit simultaneous flow of the vapor from the heat absorber (101, 102, 103, 104, 116) to the heat sink (13, 105, 106,152, 156) and of the liquid working fluid from the heat sink (13, 105, 106, 152, 156) to the heat absorber (101, 102, 103, 104, 116) when heat is applied to the heat absorber (101, 102, 103, 104, 116).
Aspiration device for measuring the viscoelastic deformability of biological tissues and synthetic materials (16; 116), comprising a probe head having the form of a cup with a cavity, side walls and a bottom wall (38, 39), a first probe channel, a pressure unit and a control unit, the first probe channel being configured to connect the pressure unit, that provides a vacuum inside first probe channel and that is controlled by the control unit, with the probe head, wherein the first probe channel has a distal end (14, 17) leading through the bottom wall (38, 39) into the cavity, optionally extending at least partly into the cavity, characterized in that the device comprises a second probe channel having a distal end leading through the bottom wall (38, 39) into the cavity and being connected with a pressure sensor provided to determine the pressure in the cavity and to communicate it to the control unit to determine the point in time, when deformed tissue or material closes the distal end (14, 17) of the first probe channel based on a pressure difference in the two probe channels (22 and 23), wherein the aspiration device further comprises an applicator having an outer sleeve with two parallel through bores to accommodate the two probe channels, wherein the two probe channels comprise two rigid airways cylinders connected at the distal end with two flexible tubes connected with the probe head, wherein the length of the rigid airways cylinders is longer than the length of the outer sleeve to allow an advance and retreating action in an essentially free relative movement between probe head and the outer sleeve.
An immunostimulatory composition including a therapeutically effective amount of: (a) honey derived arabinogalactan protein; and (b) isolated and/or purified apisimin proteins, peptides or functional fragments thereof. (a) honey derived arabinogalactan protein; and (b) isolated and/or purified apisimin proteins, peptides or functional fragments thereof.