mhurhangee/patent-ind-claim-en huggingface dataset:
A driver comprising: a drive shaft configured to be coupled to an intraosseous device; a motor coupled to a power source and further coupled to the drive shaft by a non-geared off-axis drive system ; and a trigger coupled to the motor and configured to activate the motor to move the drive shaft ; a cam having: a centerpoint through which a first axis (A1) passes; and a bore having a centerpoint through which a second axis (A2) that is different from the first axis (A1) passes, where at least a portion of the motor is configured to extend through the bore along the second axis such that the motor can rotate the cam about the second axis (A2); and a linking device coupled to the cam and configured such that a portion of the drive shaft extends through the linking device, the linking device configured to transfer motion from the cam to the drive shaft ; where the non-geared off-axis drive system is configured to cause oscillating rotation of the drive shaft . a drive shaft configured to be coupled to an intraosseous device; a motor coupled to a power source and further coupled to the drive shaft by a non-geared off-axis drive system ; and a trigger coupled to the motor and configured to activate the motor to move the drive shaft ; a cam having: a centerpoint through which a first axis (A1) passes; and a bore having a centerpoint through which a second axis (A2) that is different from the first axis (A1) passes, where at least a portion of the motor is configured to extend through the bore along the second axis such that the motor can rotate the cam about the second axis (A2); and a linking device coupled to the cam and configured such that a portion of the drive shaft extends through the linking device, the linking device configured to transfer motion from the cam to the drive shaft ; a centerpoint through which a first axis (A1) passes; and a bore having a centerpoint through which a second axis (A2) that is different from the first axis (A1) passes, where at least a portion of the motor is configured to extend through the bore along the second axis such that the motor can rotate the cam about the second axis (A2); and a linking device coupled to the cam and configured such that a portion of the drive shaft extends through the linking device, the linking device configured to transfer motion from the cam to the drive shaft ; where the non-geared off-axis drive system is configured to cause oscillating rotation of the drive shaft .
A pressure determining unit configured for determining a pressure of a fluid, the pressure determining unit comprising: a body structure comprising a fluidic path configured for conducting the fluid, wherein the body structure has a first surface in a first dimension and in a second dimension , and a thickness (T) in a third dimension , and a deformation detector configured for responding to an elongation into the second dimension of the first surface of the body structure by generating a signal (SIG) indicative of a value of the pressure of the fluid in the body structure , the fluidic path of the body structure comprises a plurality of first channel segments , each first channel segment having a width (w) into the second dimension and a height (h) into the third dimension , the plurality of first channel segments being oriented so that a direction of flow in the first channel segments is substantially in the first dimension , the fluidic path comprising a plurality of rows along the second dimension , each row being oriented along the first dimension ; characterized in that each first channel segment has its height (h) into the third dimension being at least twice its width (w) into the second dimension . a body structure comprising a fluidic path configured for conducting the fluid, wherein the body structure has a first surface in a first dimension and in a second dimension , and a thickness (T) in a third dimension , and a deformation detector configured for responding to an elongation into the second dimension of the first surface of the body structure by generating a signal (SIG) indicative of a value of the pressure of the fluid in the body structure , the fluidic path of the body structure comprises a plurality of first channel segments , each first channel segment having a width (w) into the second dimension and a height (h) into the third dimension , the plurality of first channel segments being oriented so that a direction of flow in the first channel segments is substantially in the first dimension , the fluidic path comprising a plurality of rows along the second dimension , each row being oriented along the first dimension ; characterized in that each first channel segment has its height (h) into the third dimension being at least twice its width (w) into the second dimension .
Glazed leaf for a climatic chamber comprising a glazing comprising at least two glass substrates spaced apart by at least one spacer arranged at the periphery of the glass substrates to provide at least one gas gap between said substrates, and at least one oblong profile forming a support for articulation means of the leaf, characterized in that the support profile is inserted between the two glass substrates, close to the edge of the glazing and opposite the gas gap with respect to the spacer, characterized in that it comprises a single support profile arranged along one side of the glazing, in a vertical manner in a mounted position of the leaf, or in that it comprises two support profiles respectively arranged along two opposite sides of the glazing, in a horizontal manner in a mounted position of the leaf, and in that the glazing comprises a sealing barrier over its entire periphery, this barrier being disposed between the glass substrates, against the support profile(s) and facing the exterior of the glazing, and the articulation means hige sealingly crossing said barrier.
A code division multiplexing method for multiplexing demodulation reference signals for a plurality of layers of data transmitted from a base station to a mobile terminal, wherein the plurality of layers of data are multiplexed on a resource block, which comprises a predetermined number of subcarriers on a frequency axis and a predetermined number of OFDM symbols on a time axis, the method comprising: generating a plurality of second orthogonal matrices (C, D, E) by cyclically shifting chips of particular rows of a first orthogonal matrix (A), wherein each of the first orthogonal matrix (A) and the second orthogonal matrices (C, D, E) is a matrix with four rows and four columns; on each subcarrier from a subcarrier group (F1, F2, F3) carrying demodulation reference signals in a resource block (RB1), multiplying, respectively, four demodulation reference signals for each layer from a layer group with chips taken from a row, corresponding to the layer, of one of the plurality of second orthogonal matrices (C, D, E), the layer group including four layers; and mapping the multiplied demodulation reference signals at four time periods (T1, T2, T3, T4) in the resource block (RB1), the four time periods (T1 T2, T3, T4) being the same for all subcarriers in the subcarrier group (F1, F2, F3); and for the resource block (RB1), a time direction in which the chips are taken from said row for said multiplication for an odd-numbered subcarrier included in the subcarrier group (F1, F2, F3) is opposite to a time direction in which the chips are taken from said row for said multiplication for an even-numbered subcarrier included in the subcarrier group (F1, F2, F3). generating a plurality of second orthogonal matrices (C, D, E) by cyclically shifting chips of particular rows of a first orthogonal matrix (A), wherein each of the first orthogonal matrix (A) and the second orthogonal matrices (C, D, E) is a matrix with four rows and four columns; on each subcarrier from a subcarrier group (F1, F2, F3) carrying demodulation reference signals in a resource block (RB1), multiplying, respectively, four demodulation reference signals for each layer from a layer group with chips taken from a row, corresponding to the layer, of one of the plurality of second orthogonal matrices (C, D, E), the layer group including four layers; and mapping the multiplied demodulation reference signals at four time periods (T1, T2, T3, T4) in the resource block (RB1), the four time periods (T1 T2, T3, T4) being the same for all subcarriers in the subcarrier group (F1, F2, F3); and for the resource block (RB1), a time direction in which the chips are taken from said row for said multiplication for an odd-numbered subcarrier included in the subcarrier group (F1, F2, F3) is opposite to a time direction in which the chips are taken from said row for said multiplication for an even-numbered subcarrier included in the subcarrier group (F1, F2, F3).
A mechanical seal, the mechanical seal having a rotary part and a non-rotary part , the rotary part being formed at least of a rotary slide ring having a second axial end with an area and a rotary slide surface and of a rotary slide ring carrier , and the non-rotary part being formed at least of a non-rotary slide ring having a second axial end with an area and a non-rotary slide surface and of a non-rotary slide ring carrier , the mechanical seal further having an element changing the area of the second axial end of one of the rotary slide ring and the non-rotary slide ring , and a sensor configured to collect information from the wear of the slide ring/s, in communication with the mechanical seal , characterized in that the element being at least one circumferential groove which is positioned at a distance (d, d') from the slide surface at the second axial end of the one of the rotary slide ring and the non-rotary slide ring , such that the diminishing area of the second axial end or slide surface makes the frequency data, to be recorded by the sensor, from between the opposing slide surfaces change , and that the circumferential groove having a side surface , and an angle β between the groove side surface and the circumferential surface (56, 60; 70, 74) of the slide ring (24; 36') being blunt
A method for producing a cured reinforcement bar to be incorporated in a concrete component, characterized in that a filament bundle comprising individual filaments , a filament bundle divided into individual yarns, or individual yarns, is spread by at least one widening device and provided with at least one settable mineral matrix material and brought into a settable state, so that the matrix material essentially completely encases the filaments , and subsequently the encased filaments are brought together to form a filament bundle again and are subjected to shaping in a mouthpiece or in a formwork , followed by curing to form the reinforcing element.
A battery pack comprising: at least a first battery cell (210-1) and a second battery cell (210-2); and a power bar coupled to a first electrode (C) of the first battery cell and to a second electrode (D) of the second battery cell; and a communication wire coupled to the first battery cell and the second battery cell, wherein the first battery cell comprises a supervisor (212-1), which comprises: a transmitter/receiver (328-1) for signal communication with the second battery cell via the communication wire; and a voltage difference detector (312-1) coupled to the power bar and the communication wire, for detecting a voltage difference between the power bar and the communication wire, wherein the supervisor is configured to indicate degraded contact of the power bar if the detected voltage difference is out of a predetermined threshold range. at least a first battery cell (210-1) and a second battery cell (210-2); and a power bar coupled to a first electrode (C) of the first battery cell and to a second electrode (D) of the second battery cell; and a communication wire coupled to the first battery cell and the second battery cell, wherein the first battery cell comprises a supervisor (212-1), which comprises: a transmitter/receiver (328-1) for signal communication with the second battery cell via the communication wire; and a voltage difference detector (312-1) coupled to the power bar and the communication wire, for detecting a voltage difference between the power bar and the communication wire, a transmitter/receiver (328-1) for signal communication with the second battery cell via the communication wire; and a voltage difference detector (312-1) coupled to the power bar and the communication wire, for detecting a voltage difference between the power bar and the communication wire, wherein the supervisor is configured to indicate degraded contact of the power bar if the detected voltage difference is out of a predetermined threshold range.
A network application function, NAF , for establishing secure communication between the NAF and a machine to machine, M2M, device , the NAF being configured to: receive a push information response comprising a first data object from a bootstrapping server function ; tunnel the push information response to the M2M device through a Ub interface or through a Upa interface, by carrying the push information response data via Ua commands of a Ua interface between the NAF and the M2M device , for enabling the M2M device to derive first information to establish said secure communication; receive a second data object; and derive second information for use in establishing said secure communication with the M2M device . receive a push information response comprising a first data object from a bootstrapping server function ; tunnel the push information response to the M2M device through a Ub interface or through a Upa interface, by carrying the push information response data via Ua commands of a Ua interface between the NAF and the M2M device , for enabling the M2M device to derive first information to establish said secure communication; receive a second data object; and derive second information for use in establishing said secure communication with the M2M device .
A method of calculating a relative state-of-charge, RSOC, of a battery, the method comprising: measuring at least one parameter of the battery; based on the at least one parameter, estimating a state-of-charge, SOC, of the battery; based on the SOC, SOC-open circuit voltage, SOC-OCV, data of the battery, and the at least one parameter, estimating a non-dischargeable capacity of the battery; based on the non-dischargeable capacity of the battery, the SOC, and intrinsic capacity of the battery, estimating an available SOC, AvSOC, of the battery; based on the SOC and the AvSOC of the battery, determining the RSOC of the battery; and based on a ratio of the RSOC to the AvSOC, updating the RSOC of the battery, wherein the updating of the RSOC comprises: calculating the ratio of the RSOC to the AvSOC; based on the ratio, determining whether correction of the RSOC is suitable; and when the correction of the RSOC is suitable, correcting the RSOC by using a dischargeable time of the battery. measuring at least one parameter of the battery; based on the at least one parameter, estimating a state-of-charge, SOC, of the battery; based on the SOC, SOC-open circuit voltage, SOC-OCV, data of the battery, and the at least one parameter, estimating a non-dischargeable capacity of the battery; based on the non-dischargeable capacity of the battery, the SOC, and intrinsic capacity of the battery, estimating an available SOC, AvSOC, of the battery; based on the SOC and the AvSOC of the battery, determining the RSOC of the battery; and based on a ratio of the RSOC to the AvSOC, updating the RSOC of the battery, wherein the updating of the RSOC comprises: calculating the ratio of the RSOC to the AvSOC; based on the ratio, determining whether correction of the RSOC is suitable; and when the correction of the RSOC is suitable, correcting the RSOC by using a dischargeable time of the battery. calculating the ratio of the RSOC to the AvSOC; based on the ratio, determining whether correction of the RSOC is suitable; and when the correction of the RSOC is suitable, correcting the RSOC by using a dischargeable time of the battery.
A method of wireless communications at a target near field communication, NFC, device, comprising: receiving a parameter selection request including a first bit rate value to be used for transmissions from an initiator NFC device to the target NFC device and a second bit rate value to be used for transmissions from the target NFC device to the initiator NFC device, wherein the first bit rate value is different from the second bit rate value; determining based on the first bit rate value in the received parameter selection request whether to change into a first target sub-state associated with peer communications based on a first NFC radio frequency, RF, technology or a second target sub-state associated with peer communications based on a second NFC RF technology; functioning (506; 508) in either the first target sub-state or the second target sub-state based on the determination; transmitting a parameter selection response to the initiator NFC device indicating successful receipt of the parameter selection request; and performing peer mode communications with the initiator NFC device based on the determined NFC RF technology using the first bit rate value and the second bit rate value. receiving a parameter selection request including a first bit rate value to be used for transmissions from an initiator NFC device to the target NFC device and a second bit rate value to be used for transmissions from the target NFC device to the initiator NFC device, wherein the first bit rate value is different from the second bit rate value; determining based on the first bit rate value in the received parameter selection request whether to change into a first target sub-state associated with peer communications based on a first NFC radio frequency, RF, technology or a second target sub-state associated with peer communications based on a second NFC RF technology; functioning (506; 508) in either the first target sub-state or the second target sub-state based on the determination; transmitting a parameter selection response to the initiator NFC device indicating successful receipt of the parameter selection request; and performing peer mode communications with the initiator NFC device based on the determined NFC RF technology using the first bit rate value and the second bit rate value.
Cutting machine comprising: - a body having two lateral, juxtaposed sides and a hood mounted between said sides for delimiting a cutting chamber , said chamber having a rear opening for discharging the cut material, - a rotor that is rotatably supported in said chamber between said sides , - an end element supported between said sides at said rear opening of said chamber , and - a closure element supported between said sides , said closure element and said end element being mounted on said sides so as to be movable between a first position, in which said end element is moved back from said rotor and said closure element is oriented in a position close to said end element so as to close said opening , at least in part, in order to hold the cut material in the chamber for longer, and a second position, in which said end element is moved closer to the rotor than in the first position, and said closure element is oriented in a position remote from said end element so as to substantially free said opening and to facilitate discharging of the cut material from the chamber , characterised in that said end element is either a levelling roller and said closure element is a scraper, or said end element is a refinement grid or a laminar element without any holes. - a body having two lateral, juxtaposed sides and a hood mounted between said sides for delimiting a cutting chamber , said chamber having a rear opening for discharging the cut material, - a rotor that is rotatably supported in said chamber between said sides , - an end element supported between said sides at said rear opening of said chamber , and - a closure element supported between said sides ,
An ultrasonic imaging apparatus comprising: a display device displaying an image; and a supporting device configured to be coupled to the display device , wherein the supporting device comprises: a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device ; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, wherein the hinge is disposed on the same plane as the center of gravity of the display device in a vertical direction of the display device , wherein the hinge is disposed above the center of gravity (G) of the display device in the vertical direction of the display device . a display device displaying an image; and a supporting device configured to be coupled to the display device , wherein the supporting device comprises: a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device ; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, a multi-joint arm including at least one joint; a hinge connected to one end of the multi-joint arm and rotatably coupled with the display device about a rotation axis extending in the front-rear direction of the display device ; a damper to restrict rotation of the hinge to a certain extent to shorten a rotation time of the hinge when the hinge is rotated; and a brake to fix the hinge when the rotation of the hinge is finished, wherein the hinge is disposed on the same plane as the center of gravity of the display device in a vertical direction of the display device , wherein the hinge is disposed above the center of gravity (G) of the display device in the vertical direction of the display device .
An imaging probe for diagnosis which includes an imaging core having a drive shaft internally provided with an optical fiber and a signal line , comprising: an optical transceiver that is disposed in one end of the optical fiber ; and an ultrasound transceiver that is joined to the signal line , wherein the optical transceiver is arranged on a distal side of the imaging core from the ultrasound transceiver , and wherein an emitting direction of an ultrasound wave emitted from the ultrasound transceiver and an emitting direction of light emitted from the optical transceiver are substantially parallel to each other, characterized in that the emitting direction of an ultrasound wave emitted from the ultrasound transceiver and the emitting direction of light emitted from the optical transceiver are directions which are further tilted to a proximal side of the drive shaft than a direction orthogonal to the drive shaft , and the signal line and the ultrasound transceiver are joined to each other by soldering. an optical transceiver that is disposed in one end of the optical fiber ; and an ultrasound transceiver that is joined to the signal line , wherein the optical transceiver is arranged on a distal side of the imaging core from the ultrasound transceiver , and wherein an emitting direction of an ultrasound wave emitted from the ultrasound transceiver and an emitting direction of light emitted from the optical transceiver are substantially parallel to each other, characterized in that the emitting direction of an ultrasound wave emitted from the ultrasound transceiver and the emitting direction of light emitted from the optical transceiver are directions which are further tilted to a proximal side of the drive shaft than a direction orthogonal to the drive shaft , and the signal line and the ultrasound transceiver are joined to each other by soldering.