mhurhangee/patent-ind-claim-en huggingface dataset:
Wiper motor mounting assembly comprising a wiper motor unit and a bracket for mounting the wiper motor unit to a vehicle body wherein: the wiper motor unit comprises at least one fixing hole for receiving fixing means the bracket comprises at least one fixing aperture for receiving fixing means , the bracket being fixed to the wiper motor unit by fixing means in a mounted state wherein in the mounted state, the bracket and the wiper motor unit are additionally connected by at least one engaging means , the engaging means being an integral part of the wiper motor unit and in that the bracket is provided with at least one engaging aperture for receiving at least one engaging means , characterized in that said engaging aperture is shaped to protrude partially from the surface of the bracket towards the wiper motor unit and in that a hook of L-shaped cross-section is formed in the bracket and extends downwards from the edge of the engaging aperture for receiving the engaging means. the wiper motor unit comprises at least one fixing hole for receiving fixing means the bracket comprises at least one fixing aperture for receiving fixing means , the bracket being fixed to the wiper motor unit by fixing means in a mounted state wherein in the mounted state, the bracket and the wiper motor unit are additionally connected by at least one engaging means , the engaging means being an integral part of the wiper motor unit and in that the bracket is provided with at least one engaging aperture for receiving at least one engaging means , characterized in that said engaging aperture is shaped to protrude partially from the surface of the bracket towards the wiper motor unit and in that a hook of L-shaped cross-section is formed in the bracket and extends downwards from the edge of the engaging aperture for receiving the engaging means.
An optical fiber cable comprising: a sheath ; a core which is housed in the sheath and which has an intermittently-adhered optical fiber ribbon including a plurality of optical fibers and a plurality of adhesive portions for intermittently adhering the plurality of optical fibers in a longitudinal direction; and tensile strength members and ripcords embedded in the sheath , wherein recesses and protrusions are formed so as to be disposed alternately in a circumferential direction on an outer circumferential surface of the sheath , the recesses each include two connecting portions respectively connected to radial inner ends of two adjacent protrusions , and a bottom surface positioned between the two connecting portions , characterized in that : in a transverse cross-sectional view, among the plurality of protrusions , the ripcords are positioned inside some of the protrusions , and the tensile strength members are positioned inside the other protrusions , and the connecting portions are formed in a curved surface shape that is radially inward convex. a sheath ; a core which is housed in the sheath and which has an intermittently-adhered optical fiber ribbon including a plurality of optical fibers and a plurality of adhesive portions for intermittently adhering the plurality of optical fibers in a longitudinal direction; and tensile strength members and ripcords embedded in the sheath , wherein recesses and protrusions are formed so as to be disposed alternately in a circumferential direction on an outer circumferential surface of the sheath , the recesses each include two connecting portions respectively connected to radial inner ends of two adjacent protrusions , and a bottom surface positioned between the two connecting portions , characterized in that : in a transverse cross-sectional view, among the plurality of protrusions , the ripcords are positioned inside some of the protrusions , and the tensile strength members are positioned inside the other protrusions , and the connecting portions are formed in a curved surface shape that is radially inward convex. in a transverse cross-sectional view, among the plurality of protrusions , the ripcords are positioned inside some of the protrusions , and the tensile strength members are positioned inside the other protrusions , and the connecting portions are formed in a curved surface shape that is radially inward convex.
A radio frequency transmitter part (Tx-part) for a portable device, the radio frequency transmitter part comprising an antenna and a tuning circuit and being adapted to transmit radio signals within a first frequency band of width BW sig via the antenna and the tuning circuit, the antenna and the tuning circuit together being tuned to a second frequency band of width BW ant overlapping with the first frequency band and fulfilling the relation BW ant = k· BW sig , and the antenna bandwidth BW ant is defined as the -3dB bandwidth of the loaded antenna, and the signal bandwidth BW sig is defined as the bandwidth within which 99% of the signal power is located, wherein k is smaller than 0.75, the antenna is an electrically small antenna, the transmitted radio signals are modulated according to a digital modulation scheme, and the transmitter part is adapted to pre-compensate within the entire first frequency band for such phase and/or amplitude changes to the transmitted radio signals that are caused by the antenna and the tuning circuit.
Rotisserie oven , comprising: a casing , an oven cavity within the casing for a food product, such as poultry , a rotor , rotatably connected to the casing , for moving the food product in the oven cavity , a drive for driving the rotor , a heater for heating the food product, and a control system for controlling at least the drive , whereby the control system comprises a contactless motion sensor , that the control system is configured to recognise a motion of an object, such as a body part of an operator , in front of the contactless motion sensor , and the control system is configured to initiate an action based on the recognised motion, characterised in that the control system is configured to activate the drive to rotate the rotor over a predetermined amount of degrees in response to a predetermined motion in front of the contactless motion sensor . a casing , an oven cavity within the casing for a food product, such as poultry , a rotor , rotatably connected to the casing , for moving the food product in the oven cavity , a drive for driving the rotor , a heater for heating the food product, and a control system for controlling at least the drive , whereby the control system comprises a contactless motion sensor , that the control system is configured to recognise a motion of an object, such as a body part of an operator , in front of the contactless motion sensor , and the control system is configured to initiate an action based on the recognised motion, characterised in that the control system is configured to activate the drive to rotate the rotor over a predetermined amount of degrees in response to a predetermined motion in front of the contactless motion sensor .
An apparatus for the non-invasive detection of hazardous materials in an aquatic environment comprising: - a sealed housing, in which there is a fast neutron generator surrounded by α particle detectors , and gamma quanta detector , wherein the fast neutron generator is adapted to emit fast neutrons with a specific energy range from 5 MeV to 20 MeV and said fast neutrons are collimated in the direction of the tested object , and the gamma quanta detector is adapted to detect gamma quanta emitted in the transition from the excited state to the ground state of nuclei of the tested object , and - neutrons and gamma quanta guides , , connected with fast neutron generator and with the gamma quanta detector , respectively, characterized in that the distance between the neutrons and gamma quanta guides coupled to the fast neutron generator and the neutrons and gamma quanta guide connected to the gamma quanta detector is changeable, wherein the angle between the neutrons and gamma quanta guide , and neutrons and gamma quanta guide is in the range from ∼0 to ∼90 degrees. - a sealed housing, in which there is a fast neutron generator surrounded by α particle detectors , and gamma quanta detector , wherein the fast neutron generator is adapted to emit fast neutrons with a specific energy range from 5 MeV to 20 MeV and said fast neutrons are collimated in the direction of the tested object , and the gamma quanta detector is adapted to detect gamma quanta emitted in the transition from the excited state to the ground state of nuclei of the tested object , and - neutrons and gamma quanta guides , , connected with fast neutron generator and with the gamma quanta detector , respectively,
A dive computer system, comprising: a dive computer having a display on which information is displayed and a processor; and a sensor that takes skin temperature measurements directly from the diver's skin, the sensor is operably coupled to the dive computer such that the skin temperature measurements can be supplied to the processor of the dive computer from the sensor, the processor is configured to utilize a decompression algorithm to calculate dive parameters and the skin temperature measurements to compensate the decompression algorithm for diver skin temperature by calculating an updated skin perfusion factor using the skin temperature measurements, wherein the sensor also takes heart rate measurements in addition to the skin temperature measurements; and wherein the sensor is attached to a measurement device that includes a measurement device processor and a wireless transmitter, the measurement device processor applies a transmission coding to the heart rate measurements and the skin temperature measurements such that the heart rate measurements and the skin temperature measurements are transformed into a coded data, the transmission coding is based on a diver heart rate and a diver skin temperature, the transmitter modulates the coded data to a higher frequency and wirelessly transmits the coded data to a receiver of the dive computer; the receiver demodulates the coded data to a baseband frequency and provides the coded data to the processor of the dive computer. a dive computer having a display on which information is displayed and a processor; and a sensor that takes skin temperature measurements directly from the diver's skin, the sensor is operably coupled to the dive computer such that the skin temperature measurements can be supplied to the processor of the dive computer from the sensor, the processor is configured to utilize a decompression algorithm to calculate dive parameters and the skin temperature measurements to compensate the decompression algorithm for diver skin temperature by calculating an updated skin perfusion factor using the skin temperature measurements, wherein the sensor also takes heart rate measurements in addition to the skin temperature measurements; and wherein the sensor is attached to a measurement device that includes a measurement device processor and a wireless transmitter, the measurement device processor applies a transmission coding to the heart rate measurements and the skin temperature measurements such that the heart rate measurements and the skin temperature measurements are transformed into a coded data, the transmission coding is based on a diver heart rate and a diver skin temperature, the transmitter modulates the coded data to a higher frequency and wirelessly transmits the coded data to a receiver of the dive computer; the receiver demodulates the coded data to a baseband frequency and provides the coded data to the processor of the dive computer.
A method for a user equipment , in the following also referred to as UE, comprising: receiving a first indication from a network node about at least one UE beam to be used for a transmission or a reception; receiving a periodic signaling from the network node to detect change of a serving beam for beam tracking; using the at least one UE beam for the transmission or the reception; and transmitting or receiving a second indication for the change of the serving beam using a specific UE beam if the beam tracking fails; wherein: the specific UE beam is different from the at least one UE beam; the specific UE beam is selected by the UE ; and the timing to transmit or receive the second indication is configured by the network node . receiving a first indication from a network node about at least one UE beam to be used for a transmission or a reception; receiving a periodic signaling from the network node to detect change of a serving beam for beam tracking; using the at least one UE beam for the transmission or the reception; and transmitting or receiving a second indication for the change of the serving beam using a specific UE beam if the beam tracking fails; wherein: the specific UE beam is different from the at least one UE beam; the specific UE beam is selected by the UE ; and the timing to transmit or receive the second indication is configured by the network node . the specific UE beam is different from the at least one UE beam; the specific UE beam is selected by the UE ; and the timing to transmit or receive the second indication is configured by the network node .
Coffee machine with a housing , a brewing unit and with a drip tray and a container for coffee grounds, wherein the container for coffee grounds is embodied as a tray for coffee grounds and is fastened to the rear of the drip tray , so that these can be removed together from the housing and can be reinserted herein, characterised in that the tray for coffee grounds essentially has the height of the drip tray and comprises a front and rear segment and wherein when the drip tray and tray for coffee grounds are integrated, a coffee grounds collecting chamber is arranged above the front segment of the tray for coffee grounds and has a striking-off edge at the bottom so that when the drip tray and tray for coffee grounds are removed, a stack of coffee grounds collected in the coffee grounds collecting chamber is distributed via the striking-off edge onto the front and rear segment of the tray for coffee grounds .
A gradient proportioning valve for liquid chromatography comprising: a plurality of inlet ports configured to receive a plurality of fluids; a plurality of actuation mechanisms ; a manifold connected to each of the plurality of inlet ports configured to mix the plurality of fluids in a controlled manner to provide a fluid composition, the manifold including a plurality of fluid conduits internal to the manifold, each of the plurality of fluid conduits receiving fluid through a respective one of the plurality of inlet ports, each of the plurality of fluid conduits operatively communicable to a respective one of the actuation mechanisms, the actuation mechanisms configured to open and close each of the plurality of fluid conduits in a controlled manner; a common outlet port configured to receive the fluid composition; and a passive fluidic dampening system configured to dampen unwanted fluidic pressure pulses in the manifold, wherein the passive fluidic dampening system includes at least one of the plurality of fluid conduits comprising a compliant fluid conduit having an entire wall in line with fluid flow being made of a complaint material. a plurality of inlet ports configured to receive a plurality of fluids; a plurality of actuation mechanisms ; a manifold connected to each of the plurality of inlet ports configured to mix the plurality of fluids in a controlled manner to provide a fluid composition, the manifold including a plurality of fluid conduits internal to the manifold, each of the plurality of fluid conduits receiving fluid through a respective one of the plurality of inlet ports, each of the plurality of fluid conduits operatively communicable to a respective one of the actuation mechanisms, the actuation mechanisms configured to open and close each of the plurality of fluid conduits in a controlled manner; a common outlet port configured to receive the fluid composition; and a passive fluidic dampening system configured to dampen unwanted fluidic pressure pulses in the manifold, wherein the passive fluidic dampening system includes at least one of the plurality of fluid conduits comprising a compliant fluid conduit having an entire wall in line with fluid flow being made of a complaint material.
Set of two units , a first unit comprising a first cooling circuit portion and a second unit comprising a second cooling circuit portion, said cooling circuit portions being intended to form a fluid cooling circuit (F), each unit comprising a flat face comprising a respective cooling circuit portion opening and defining an interface (INT) of said cooling circuit, said cooling circuit portions being intended to be fluidically linked by a plane-plane contact between said flat faces, said openings being disposed substantially opposite one another, one of said openings forming an inlet of a cooling circuit portion and the other of said openings forming an outlet of a cooling circuit portion, wherein at least one of the openings also comprises a gap formed in the corresponding flat face and extending from said opening so that the periphery of said gap also encompasses the other of said openings when the flat faces are in plane-plane contact, allowing a fluidic linking of the two cooling circuit portions to be assured, including when the inlet and the outlet are misaligned, characterized in that said first unit and said second unit respectively comprise an electrical device.
An air vent for a motor vehicle, comprising a housing which defines an air guiding channel and a plurality of lamellae which are provided at their ends with bearing pins , the lamellae being pivotably attached thereby to the housing , wherein the lamellae are mounted on opposing sides with one respective radial bearing and on just one side with one respective axial bearing such that the lamellae are mounted in the housing by a combination of fixed bearings and floating bearings, wherein, the radial bearings are designed as a circular opening , the corresponding bearing pin engaging therein; and the radial bearings are attached to the housing so as to be able to be resiliently deflected in the axial direction, and on this just one side the radial bearing opening being formed in a radial bearing strip , which is attached to the housing of the air vent , wherein the radial bearing strip is connected by a connecting portion to the housing of the air vent , and characterised in that , the radial bearing strip protrudes to a side of the housing of the air vent . wherein, the radial bearings are designed as a circular opening , the corresponding bearing pin engaging therein; and the radial bearings are attached to the housing so as to be able to be resiliently deflected in the axial direction, and on this just one side the radial bearing opening being formed in a radial bearing strip , which is attached to the housing of the air vent , wherein the radial bearing strip is connected by a connecting portion to the housing of the air vent , and characterised in that , the radial bearing strip protrudes to a side of the housing of the air vent .
An isolated peptide consisting in an amino acid sequence selected from the group consisting of: SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 4, SEQ ID NO: 5, SEQ ID NO: 6, SEQ ID NO: 7, SEQ ID NO: 8, SEQ ID NO: 9, SEQ ID NO: 10, SEQ ID NO: 11, SEQ ID NO: 12, SEQ ID NO: 13, SEQ ID NO: 14, SEQ ID NO: 15, SEQ ID NO: 16, SEQ ID NO: 17 and SEQ ID NO: 18, or variants thereof, wherein said variant has an amino acid sequence differing from those sequences by one or more deletion or conservative substitution and wherein the sequence of those variants is at least 80% identical to the original amino acid sequence.
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 in which the charged air is heated and wherein the heat exchanger 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 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 .
A composition comprising: (a) tetrakis(hydroxymethyl)phosphonium sulfate (THPS); (b) water; and (c) 1,2-propanediol; wherein weight percentages of (a), (b) and (c) are within an area on a ternary phase diagram bounded by five points: (A) 20% THPS/40% water/40% 1,2-propanediol; (B) 20% THPS/20% water/60% 1,2-propanediol; (C) 65% THPS/22% water/13% 1,2-propanediol; (D) 65% THPS/25% water/10% 1,2-propanediol; and (E) 40% THPS/28% water/32% 1,2-propanediol, or comprising (a), (b), (c) and no more than 5 wt% ingredients other than (a), (b) or (c), wherein for any such composition comprising ingredients other than (a), (b) and (c), when the weight percentages of THPS, water and 1,2-propanediol are normalized to 100%, the normalized weight percentages of (a), (b) and (c) are within the area on a ternary phase diagram bounded by the points as hereinbefore defined.
An ultrasonic diagnostic apparatus, comprising: a probe configured to radiate an ultrasonic signal to an object and receive the ultrasonic signal reflected from the object; a pressure device configured to contract or expand a blood vessel of the object and being divided into a plurality of regions; and a controller configured to control the pressure device to contract or expand one region of the plurality of regions and to generate an image related to the blood vessel of the object, wherein the pressure device comprises a detector configured to detect a pressure transmitted by the probe to respective regions of the plurality of regions, and wherein the controller is configured to determine a position of the probe based on the pressure detected by the detector, and to determine the one region among the plurality of regions based on a position of a contact region where the probe is positioned. a probe configured to radiate an ultrasonic signal to an object and receive the ultrasonic signal reflected from the object; a pressure device configured to contract or expand a blood vessel of the object and being divided into a plurality of regions; and a controller configured to control the pressure device to contract or expand one region of the plurality of regions and to generate an image related to the blood vessel of the object, wherein the pressure device comprises a detector configured to detect a pressure transmitted by the probe to respective regions of the plurality of regions, and wherein the controller is configured to determine a position of the probe based on the pressure detected by the detector, and to determine the one region among the plurality of regions based on a position of a contact region where the probe is positioned.