mhurhangee/ep-ind-claims huggingface dataset:
A material deposition head comprising: a first body portion comprising a first end, a second end, and an exterior surface extending from the first end to the second end, wherein at least a portion of the exterior surface includes threading; a ring comprising a first end, a second end, and an interior surface extending from the first end of the ring to the second end of the ring, wherein the ring encircles the first body portion, at least a portion of the interior surface comprises threading, and the threading of the interior surface of the ring engages the threading of the exterior surface of the first body portion; a second body portion; and at least one pin coupled to the second body portion that engages the first body portion to substantially prevent relative rotation between the first body portion and the second body portion, wherein the first body portion moves axially relative to the second body portion when the ring is rotated about the first body portion. a first body portion comprising a first end, a second end, and an exterior surface extending from the first end to the second end, wherein at least a portion of the exterior surface includes threading; a ring comprising a first end, a second end, and an interior surface extending from the first end of the ring to the second end of the ring, wherein the ring encircles the first body portion, at least a portion of the interior surface comprises threading, and the threading of the interior surface of the ring engages the threading of the exterior surface of the first body portion; a second body portion; and at least one pin coupled to the second body portion that engages the first body portion to substantially prevent relative rotation between the first body portion and the second body portion, wherein the first body portion moves axially relative to the second body portion when the ring is rotated about the first body portion.
An arrangement for heating of an exhaust treatment component in an exhaust line of a combustion engine in a vehicle, wherein the vehicle comprises a WHR system comprising an evaporator in which a working medium is heated by the exhaust gases in exhaust line and a charge air line leading charged air to the combustion engine, wherein the arrangement comprises a sensor sensing a parameter related to the temperature of the exhaust treatment component, a heat transfer device able to transfer heat from the working medium in the WHR system to the charge air in the charge air line, and a control unit configured to receive information from said sensor about said parameter and to activate said heat transfer device such that the charged air in the charged air line is heated during operating condition when said parameter indicates that the exhaust treatment component has a lower temperature than a predetermined operating temperature, characterized in that the heat transfer device comprises a heat exchanger (14, 44) in which the charged air is heated and wherein the heat exchanger (14, 44) is arranged in the charged air line in a position downstream of a charged air cooler and upstream of the combustion engine and wherein the charged air is heated in the heat exchanger by the working medium and wherein the heat transfer device comprises an extra loop (37, 38) directing the working medium to the heat exchanger and back to the ordinary WHR system and valve member by which the control unit control the supply of the working medium form the WHR system to the heat exchanger.
Motor vehicle door lock, in particular a motor vehicle door latch with a catch, pawl and a closing aid impacting on the catch in the form of a drive with an actuator, drive shaft, Bowden cable and a sensor assigned and connected to the drive housing, whereby the catch can be moved out of the pre-ratchet in a motorized manner via the drive into the main ratchet until the sensor responds and the sensor is integrated into the drive housing, with which the Bowden cable thrust bearing is connected, characterized in that a lid securing the sensor is clipped in the drive housing.
An air purification system including: an air purification apparatus comprising: an air inlet; an air outlet for expelling air in a target direction into a region and including an adjustment mechanism arranged to adjust said target direction in response to a target direction adjustment signal for aiming the air outlet at the face of a person in said region; at least one pollutant removal structure in between the air inlet and the air outlet; an air displacement apparatus for displacing air from the air inlet to the air outlet through the at least one pollutant removal structure; a controller (153, 170); and a sensor (151, 160, 135) adapted to determine a breathing parameter of the person, wherein the controller is configured to control the air purification apparatus for expelling said air as a function of said breathing parameter. an air inlet; an air outlet for expelling air in a target direction into a region and including an adjustment mechanism arranged to adjust said target direction in response to a target direction adjustment signal for aiming the air outlet at the face of a person in said region; at least one pollutant removal structure in between the air inlet and the air outlet; an air displacement apparatus for displacing air from the air inlet to the air outlet through the at least one pollutant removal structure; a controller (153, 170); and a sensor (151, 160, 135) adapted to determine a breathing parameter of the person, wherein the controller is configured to control the air purification apparatus for expelling said air as a function of said breathing parameter.
An implantable device, comprising: a body comprising a wireless communication system; two or more electrodes in electrical communication with the wireless communication system configured to detect an electrophysiological signal transmitted by a nerve or emit an electrical pulse to the nerve; and a helical nerve cuff comprising at least one of the two or more electrodes positioned along a length of the helical nerve cuff, wherein the body is attached to the helical nerve cuff without an interceding lead between the body and the helical nerve cuff, and the helical nerve cuff is configured to at least partially wrap around a fibrous tissue comprising the nerve and position the at least one of the two or more electrodes in electrical communication with the nerve. a body comprising a wireless communication system; two or more electrodes in electrical communication with the wireless communication system configured to detect an electrophysiological signal transmitted by a nerve or emit an electrical pulse to the nerve; and a helical nerve cuff comprising at least one of the two or more electrodes positioned along a length of the helical nerve cuff, wherein the body is attached to the helical nerve cuff without an interceding lead between the body and the helical nerve cuff, and the helical nerve cuff is configured to at least partially wrap around a fibrous tissue comprising the nerve and position the at least one of the two or more electrodes in electrical communication with the nerve.
A straddled vehicle comprising: an internal combustion engine; an injector attached to the internal combustion engine and configured to inject fuel; an intake passage connected to the internal combustion engine; a throttle valve disposed in the intake passage; a throttle drum connected to the throttle valve and configured to rotate together with the throttle valve; a first throttle cable connected to the throttle drum and configured to pull the throttle drum in a first direction; a second throttle cable connected to the throttle drum and configured to pull the throttle drum in a second direction that is opposite to the first direction; and a fuel hose connected to the injector, the straddled vehicle being characterised in that the fuel hose has an intersection portion passing between the first throttle cable and the second throttle cable. an internal combustion engine; an injector attached to the internal combustion engine and configured to inject fuel; an intake passage connected to the internal combustion engine; a throttle valve disposed in the intake passage; a throttle drum connected to the throttle valve and configured to rotate together with the throttle valve; a first throttle cable connected to the throttle drum and configured to pull the throttle drum in a first direction; a second throttle cable connected to the throttle drum and configured to pull the throttle drum in a second direction that is opposite to the first direction; and a fuel hose connected to the injector, the straddled vehicle being characterised in that the fuel hose has an intersection portion passing between the first throttle cable and the second throttle cable.
A method of diagnosing COPD, comprising the steps (a) determining an expression profile of a predetermined set of miRNAs, in a blood cell sample from a patient particularly a human patient; and (b) comparing said expression profile to a reference expression profile, wherein the predetermined set of miRNAs comprises miRNAs that are differentially regulated in blood cell samples from COPD patients as compared to lung cancer patients and the comparison of said determined expression profile to said reference expression profile allows for the diagnosis of COPD, and wherein said blood cell sample is a blood cellular fraction including erythrocytes, leukocytes and thrombocytes and wherein the expression profile is determined from miRNAs selected from Figure 5. (a) determining an expression profile of a predetermined set of miRNAs, in a blood cell sample from a patient particularly a human patient; and (b) comparing said expression profile to a reference expression profile, wherein the predetermined set of miRNAs comprises miRNAs that are differentially regulated in blood cell samples from COPD patients as compared to lung cancer patients and the comparison of said determined expression profile to said reference expression profile allows for the diagnosis of COPD, and wherein said blood cell sample is a blood cellular fraction including erythrocytes, leukocytes and thrombocytes and wherein the expression profile is determined from miRNAs selected from Figure 5.
Structured mineral bone substitute moldings having a defined interconnecting pore system and a predetermined structure, made of a anhydrous mineral bone cement containing calcium and/or magnesium compounds and from 0.5 Mol-% to 25 Mol-% strontium ions, based on the total content of divalent cations, wherein the defined interconnecting pore system in at least one dimension has an interconnecting pore system having pores that have an average pore cross section of at least 50,000 μm 2 and an average pore diameter of at least 250 μm, based on a circular cross section, wherein the defined interconnecting pore system in at least one dimension has an interconnecting pore system having pores that have a maximum average pore cross section of 785,000 μm 2 and a maximum average pore diameter of 1000 μm, based on a circular cross-section.
A flexible packaging comprising: a substrate base layer; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer, the pressure sensitive adhesive layer comprising: at least one adhesive zone, characterized in that: the flexible packaging further comprises at least one continuously extending adhesive-free zone that extends continuously in a machine direction that is disposed in the center of the flexible packaging or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free zone, and to form at least one resealable flap continuous with the at least one pull tab; and wherein the substrate base layer is scored to form at least one cavity which is disposed adjacent the at least one adhesive-free zone. a substrate base layer; and a film layer at least partially releasably affixed to the substrate base layer via a pressure sensitive adhesive layer, the pressure sensitive adhesive layer comprising: at least one adhesive zone, the flexible packaging further comprises at least one continuously extending adhesive-free zone that extends continuously in a machine direction that is disposed in the center of the flexible packaging or to the left or right thereof; wherein the film layer is scored to form at least one pull tab which is disposed within the at least one adhesive-free zone, and to form at least one resealable flap continuous with the at least one pull tab; and wherein the substrate base layer is scored to form at least one cavity which is disposed adjacent the at least one adhesive-free zone.
A battery system for an electrically driven vehicle, with at least one main module which comprises a plurality of battery cells and which is connected to at least one secondary module which comprises a plurality of battery cells, wherein the main module is connected directly, and the secondary module only via the main module, to vehicle electronics, characterised in that the at least one main module has a battery system control unit and a contactor arranged in the line connecting the battery cells of the main module to the battery cells of the secondary module, the battery system control unit being connected to the vehicle electronics and also to the contactor, and the battery cells, the battery control means and the contactor of the main module and the battery cells of the secondary module being accommodated in separate housings.
A signal processor for compressing signal data, comprising: a function shapes generator for receiving as input time and frequency scale parameters, and for generating as output a plurality of shape parameters for a corresponding plurality of localized functions, wherein the shape parameters govern the centers and spreads of the localized functions; a matrix generator, coupled with said function shapes generator, for receiving as input the plurality of shape parameters generated by said function shapes generator, and a sequence of sampling times, and for generating as output a matrix whose elements are the values of the localized functions at the sampling times, wherein each column of the matrix corresponds to one of the localized functions, wherein each row of the matrix corresponds to one of the sampling times, and wherein the matrix has a conjugate transpose matrix; a signal transformer, coupled with said matrix generator, for receiving as input an original signal, and the matrix generated by said matrix generator, and for generating as output a transformed signal by applying the conjugate transpose matrix to the original signal; and a signal compressor, coupled with said signal transformer, for receiving as input the transformed signal generated by said signal transformer, and for generating as output a compressed representation of the transformed signal. a function shapes generator for receiving as input time and frequency scale parameters, and for generating as output a plurality of shape parameters for a corresponding plurality of localized functions, wherein the shape parameters govern the centers and spreads of the localized functions; a matrix generator, coupled with said function shapes generator, for receiving as input the plurality of shape parameters generated by said function shapes generator, and a sequence of sampling times, and for generating as output a matrix whose elements are the values of the localized functions at the sampling times, wherein each column of the matrix corresponds to one of the localized functions, wherein each row of the matrix corresponds to one of the sampling times, and wherein the matrix has a conjugate transpose matrix; a signal transformer, coupled with said matrix generator, for receiving as input an original signal, and the matrix generated by said matrix generator, and for generating as output a transformed signal by applying the conjugate transpose matrix to the original signal; and a signal compressor, coupled with said signal transformer, for receiving as input the transformed signal generated by said signal transformer, and for generating as output a compressed representation of the transformed signal.
Mesoporous silica nanoparticles for the controlled release of active substances against a characteristic microorganism, where the silica nanoparticles are characterized by: - a size comprised between 100 nm to 1 μm and a pore size between 2 to 15 nm, and on the surface of these materials, sugar derivatives are functionalized by the use of alkoxysilane molecules that act as an anchor molecule for the formation of the covalent bond with the surface of the material; and the carbohydrate derivatives used contain saccharides from 3 to 20 units, and are functionalized on the surface of nanoparticles encapsulated with active substance; - the active substance is a volatile antibacterial and / or antifungal substance; and - the carbohydrate derivative is maltodextrin comprising 3 to 20 units of monosaccharides. - a size comprised between 100 nm to 1 μm and a pore size between 2 to 15 nm, and on the surface of these materials, sugar derivatives are functionalized by the use of alkoxysilane molecules that act as an anchor molecule for the formation of the covalent bond with the surface of the material; and the carbohydrate derivatives used contain saccharides from 3 to 20 units, and are functionalized on the surface of nanoparticles encapsulated with active substance; - the active substance is a volatile antibacterial and / or antifungal substance; and - the carbohydrate derivative is maltodextrin comprising 3 to 20 units of monosaccharides.
An electronic device (100; 201) comprising: a communication module; and a processor, wherein the communication module is configured to: transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor, and wherein the processor is configured to identify the RSSI of the response packet by using the first packet received from the communication module, wherein the first packet is related to a packet indicating a number of data packets completed to be transmitted from the electronic device to the external electronic device. a communication module; and a processor, wherein the communication module is configured to: transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor, and transmit a data packet received from the processor to an external electronic device connected to the electronic device (100; 201) using Bluetooth communication; receive a response packet corresponding to the data packet from the external electronic device using Bluetooth communication; in response to receiving the response packet, acquire a received signal strength indication, 'RSSI', of the response packet; and transmit a first packet by adding information on the RSSI to the processor, and wherein the processor is configured to identify the RSSI of the response packet by using the first packet received from the communication module, wherein the first packet is related to a packet indicating a number of data packets completed to be transmitted from the electronic device to the external electronic device.
A virtual road surface implementation-type bicycle simulator comprising: a rear wheel support portion that supports a rear wheel of a mounted bicycle and rotates together with rotation of the rear wheel; and a road surface implementation portion including a plurality of uneven portions that perform an operation of protruding at various heights on an outer peripheral surface of the rear wheel support portion in contact with the rear wheel, wherein various road surface states which are virtually set are provided to a rider riding the bicycle. a rear wheel support portion that supports a rear wheel of a mounted bicycle and rotates together with rotation of the rear wheel; and a road surface implementation portion including a plurality of uneven portions that perform an operation of protruding at various heights on an outer peripheral surface of the rear wheel support portion in contact with the rear wheel, wherein various road surface states which are virtually set are provided to a rider riding the bicycle.
A method for securing an authentication and key agreement procedure in a network including a secure server, an authentication server, and at least a terminal which hosts an personal token said authentication method comprising the following steps: a. In the secure server, performing a calculation on the basis of random data (RAND) and a secret key thereby producing derived key material (Ck, Ik); b. Sending said derived key material (Ck,Ik) together with said random data and together with first data (AUTN, XRES, MAC, SQN, Ak, AMF) from the secure server to the authentication server; c. in said authentication server, generating second data (MAC*, SQN*) by modifying at least part of said first data by means of at least part of said derived key material (Ck, Ik), d. Sending said second data and said random data (RAND) through the hosting terminal to said personal token; e. In the personal token, performing a calculation based on the received random data (RAND) for re-computing said at least part of said derived key material (Ck, Ik) as used in the authentication server for modifying said part of the first data; f. In the token, using said re-computed at least part of the derived key material for interpreting the modified part of the received second data, g1 if the said part of the second data has been modified with said at least part of the derived key material, maintaining in the token at least a portion of the derived key material with keeping it hidden in the token. a. In the secure server, performing a calculation on the basis of random data (RAND) and a secret key thereby producing derived key material (Ck, Ik); b. Sending said derived key material (Ck,Ik) together with said random data and together with first data (AUTN, XRES, MAC, SQN, Ak, AMF) from the secure server to the authentication server; c. in said authentication server, generating second data (MAC*, SQN*) by modifying at least part of said first data by means of at least part of said derived key material (Ck, Ik), d. Sending said second data and said random data (RAND) through the hosting terminal to said personal token; e. In the personal token, performing a calculation based on the received random data (RAND) for re-computing said at least part of said derived key material (Ck, Ik) as used in the authentication server for modifying said part of the first data; f. In the token, using said re-computed at least part of the derived key material for interpreting the modified part of the received second data, g1 if the said part of the second data has been modified with said at least part of the derived key material, maintaining in the token at least a portion of the derived key material with keeping it hidden in the token.