mhurhangee/patent-ind-claim-en huggingface dataset:
Transferring device comprising an adjustable gripping device , the gripping device having at least one first suction cup which can be placed under negative pressure and which can be brought into contact with the surface of an object (K) to be picked up on a first suction cup contact surface , the first suction cup defining a first suction cup normal (SN 1 ) extending perpendicularly to the first suction cup contact surface , a first arm being provided, which is mounted in a first rotary bearing so as to be pivotable about an axis of rotation (D) and bears a first arm suction cup , the first arm suction cup having a first arm suction cup contact surface and defining a first arm suction cup normal (ASN 1 ) extending perpendicularly to the first arm suction cup contact surface , characterized in that a second arm is provided, which is arranged at a distance from the first arm and bears a second arm suction cup , the second arm suction cup having a second arm suction cup contact surface and defining a second arm suction cup normal (ASN 2 ) extending perpendicularly to the second arm suction cup contact surface , which second arm suction cup normal extends parallel to the first arm suction cup normal (ASN 1 ), in that the 1st arm suction cup and the second arm suction cup are facing each other, and in that the axis of rotation (D) extends perpendicularly to the first suction cup normal (SN 1 ), in that the first arm suction cup normal (ASN 1 ) extends parallel to the axis of rotation (D), in that the second arm is mounted in a second rotary bearing so as to be pivotable about the axis of rotation (D) or an axis parallel thereto, in that the second arm suction normal (ASN 2 ) extends parallel to the axis of rotation (D) and in that the first arm is displaceable along its axis of rotation (D) and/or in that the second arm is displaceable along its axis of rotation (D).
A wireless communication system comprising: a first wireless communication device including circuitry operative to map at most one type of reference signals, RSs, from cell-specific reference signals, CRSs, and demodulation reference signals, DMRSs, in each shortened transmission time interval, TTI, in a subframe, each shortened TTI consisting of 2 orthogonal frequency division multiplexing, OFDM, symbols; and a transmitter operative to transmit a physical channel in a shortened TTI, the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel being used to demodulate the physical channel at a second wireless communication device, wherein: either CRSs or DMRSs are mapped in each shortened TTI, respectively, and a number of OFDM symbols between adjacent RSs differs within the subframe; and the second wireless communication device including a receiver operative to receive the RSs; and circuitry operative to demodulate the physical channel in a shortened TTI by using the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel. circuitry operative to map at most one type of reference signals, RSs, from cell-specific reference signals, CRSs, and demodulation reference signals, DMRSs, in each shortened transmission time interval, TTI, in a subframe, each shortened TTI consisting of 2 orthogonal frequency division multiplexing, OFDM, symbols; and a transmitter operative to transmit a physical channel in a shortened TTI, the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel being used to demodulate the physical channel at a second wireless communication device, wherein: either CRSs or DMRSs are mapped in each shortened TTI, respectively, and a number of OFDM symbols between adjacent RSs differs within the subframe; and the second wireless communication device including a receiver operative to receive the RSs; and circuitry operative to demodulate the physical channel in a shortened TTI by using the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel. either CRSs or DMRSs are mapped in each shortened TTI, respectively, and a number of OFDM symbols between adjacent RSs differs within the subframe; and the second wireless communication device including a receiver operative to receive the RSs; and circuitry operative to demodulate the physical channel in a shortened TTI by using the RSs within the OFDM symbols of the shortened TTI transmitting the physical channel.
An aircraft gas pressure equalization system comprising: a gas supply line having a supply valve ; and an equilibrium gas line joined at junctions with the gas supply line upstream and downstream from the supply valve, and in flow communication with the gas supply line, the equilibrium gas line having an equilibrium valve and a flow restrictor , the equilibrium valve having an exit orifice and the flow restrictor being offset from the exit orifice of the equilibrium valve; characterised by the supply valve being one of a ball valve and a butterfly valve, and the equilibrium valve is one of a ball valve and a butterfly valve ; and wherein: (i) one or more pressure sensors are disposed in respective portions of the gas supply line for determining upstream and downstream pressures; or (ii) the supply valve is arranged to be opened a predetermined time period after the equilibrium valve is opened. a gas supply line having a supply valve ; and an equilibrium gas line joined at junctions with the gas supply line upstream and downstream from the supply valve, and in flow communication with the gas supply line, the equilibrium gas line having an equilibrium valve and a flow restrictor , the equilibrium valve having an exit orifice and the flow restrictor being offset from the exit orifice of the equilibrium valve; characterised by the supply valve being one of a ball valve and a butterfly valve, and the equilibrium valve is one of a ball valve and a butterfly valve ; and wherein: (i) one or more pressure sensors are disposed in respective portions of the gas supply line for determining upstream and downstream pressures; or (ii) the supply valve is arranged to be opened a predetermined time period after the equilibrium valve is opened. (i) one or more pressure sensors are disposed in respective portions of the gas supply line for determining upstream and downstream pressures; or (ii) the supply valve is arranged to be opened a predetermined time period after the equilibrium valve is opened.
- Carding device , comprising a main drum and a doffer with an axis parallel to that of the main drum and positioned against the main drum and downstream of the main drum in the direction of fibre flow, the direction of rotation of the doffer being opposite that of the main drum , characterized in that the carding device further comprises a doffer cleaning device comprising a dust collection cylinder with an axis parallel to that of the main drum and positioned against the doffer and a cleaning cylinder with an axis parallel to that of the main drum and positioned both against the dust collection cylinder and against the main drum , the direction of rotation of the dust collection cylinder being identical to that of the doffer , and the direction of rotation of the cleaning cylinder being identical to that of the dust collection cylinder , the dust collection cylinder being configured to collect the dust present at the bottom of the doffer lining, and the cleaning cylinder being configured to automatically and progressively collect the dust on the dust collection cylinder in order to then return it to the main drum.
An uplink pre-coding method, comprising: acquiring, by a network-side device, a sounding reference signal, SRS, transmitted by a terminal device on one or more SRS resources; wherein each of the one or more SRS resources adopts a single antenna port; sending, by the network-side device, downlink control information, DCI, for scheduling uplink data transmission to the terminal device, wherein the DCI comprises an SRS resource indication, SRI, the SRI is configured to indicate one or more target SRS resources in the one or more SRS resources, and a number of the target SRS resources is a transmission layer number; and the SRI is used for the terminal device to determine a pre-coding scheme for uplink data according to the one or more SRS resources and the SRI and to pre-code the uplink data according to the pre-coding scheme; the DCI does not comprise information for indicating a pre-coding matrix for the uplink data, and the DCI does not comprise indication information of the transmission layer number, and receiving, by the network-side device, the pre-coded uplink data from the terminal device. acquiring, by a network-side device, a sounding reference signal, SRS, transmitted by a terminal device on one or more SRS resources; wherein each of the one or more SRS resources adopts a single antenna port; sending, by the network-side device, downlink control information, DCI, for scheduling uplink data transmission to the terminal device, wherein the DCI comprises an SRS resource indication, SRI, the SRI is configured to indicate one or more target SRS resources in the one or more SRS resources, and a number of the target SRS resources is a transmission layer number; and the SRI is used for the terminal device to determine a pre-coding scheme for uplink data according to the one or more SRS resources and the SRI and to pre-code the uplink data according to the pre-coding scheme; the DCI does not comprise information for indicating a pre-coding matrix for the uplink data, and the DCI does not comprise indication information of the transmission layer number, and receiving, by the network-side device, the pre-coded uplink data from the terminal device.
Method for transmitting messages between control devices of a motor vehicle by means of a switch device , wherein the messages of the control devices arrive at input ports (P1i,...,Pni) of the switch device and wherein each of the messages contains a statement of a destination address and a statement regarding a priority degree from several predetermined priority degrees, wherein the switch device records, per input port (P1i,...,Pni), in each case for one or some or all of the priority degrees and per predetermined unit of time, at most messages with a predetermined maximum data length in total and assigns the recorded messages to an output port (P1o,...,Pno) on the basis of their respective destination address and for each output port (P1o,...,Pno) transmits the messages associated therewith, wherein at least two of the control devices carry out a time synchronisation of respective timers of the control devices between one another and the synchronised control devices transmit their messages with a time offset between them, as a result of which a transmission behaviour of the synchronised control devices is interlaced, such that the messages of the synchronised control devices arrive alternately, free of any collision, at the switch device , characterised in that in the messages the respective priority degree is stated by means of cryptographically encoded priority data and the priority data are decoded by the switch device by means of a cryptographic key and/or wherein the switch device has a cryptographically protected, internal configuration.
A satellite assembly , comprising: a launch vehicle having a launch axis ; a first separation system (106; 410); a first satellite apparatus ; and a second satellite apparatus , wherein: the first satellite apparatus , comprises: a first housing including first and second opposing walls ; and a first support structure spanning the first and second opposing walls and enclosed by the first housing ; an end portion of the first support structure is connected to the launch vehicle by the first separation system ; the second satellite apparatus comprises: a second housing including first and second opposing walls , and a second support structure spanning the first and second opposing walls of the second housing and enclosed by the second housing ; a distal end portion of the first support structure in the first satellite apparatus is connected to a proximal end portion of the second support structure in the second satellite apparatus ; wherein the first and second satellite apparatus are stacked perpendicular to the launch axis inside the launch vehicle. the first satellite apparatus , comprises: a first housing including first and second opposing walls ; and a first support structure spanning the first and second opposing walls and enclosed by the first housing ; an end portion of the first support structure is connected to the launch vehicle by the first separation system ; the second satellite apparatus comprises: a second housing including first and second opposing walls , and a second support structure spanning the first and second opposing walls of the second housing and enclosed by the second housing ; a distal end portion of the first support structure in the first satellite apparatus is connected to a proximal end portion of the second support structure in the second satellite apparatus ; wherein the first and second satellite apparatus are stacked perpendicular to the launch axis inside the launch vehicle.
Non-therapeutic cosmetic process for depigmenting, lightening and/or bleaching keratin materials, comprising the application of a cosmetic composition comprising, in a physiologically acceptable medium, at least one compound of formula (I): in which: R1 denotes a radical chosen from: a) a hydrogen atom; b) a saturated linear C 1 -C 6 alkyl group; R2 denotes a radical chosen from: a) a hydrogen atom; b) a saturated linear C 1 -C 10 alkyl group; c) a saturated branched C 3 -C 10 alkyl group; d) a C 1 -C 6 phenylalkyl group such as benzyl, and also the tautomers thereof, the salts thereof, the solvates thereof and the optical isomers thereof, and the racemates thereof, alone or as a mixture. R1 denotes a radical chosen from: a) a hydrogen atom; b) a saturated linear C 1 -C 6 alkyl group; a) a hydrogen atom; b) a saturated linear C 1 -C 6 alkyl group; R2 denotes a radical chosen from: a) a hydrogen atom; b) a saturated linear C 1 -C 10 alkyl group; c) a saturated branched C 3 -C 10 alkyl group; d) a C 1 -C 6 phenylalkyl group such as benzyl, a) a hydrogen atom; b) a saturated linear C 1 -C 10 alkyl group; c) a saturated branched C 3 -C 10 alkyl group; d) a C 1 -C 6 phenylalkyl group such as benzyl,
An apparatus comprising: a wall box having a body defining a recess configured to receive an enclosure of an electrical device, the wall box further comprising at least one flexible member having a projection configured to be received in one of a plurality of detents of a notched surface when the electrical device is received in the recess of the body; wherein the flexible member of the wall box is configured to flex as the electrical device is rotated to allow the projection to be received in other ones of the plurality of detents of the notched surface, and an electrical device comprising: an enclosure defining a notched surface that is curved and has the plurality of detents, each of the plurality of detents of the notched surface being configured to receive the projection of the wall box; wherein the electrical device is configured to be rotated after the electrical device is inserted into a recess of the wall box to allow the projection of the wall box to be received in other ones of the plurality of detents of the notched surface, the electrical device being configured to be rotated to allow for alignment of the electrical device after installation into the wall box. a wall box having a body defining a recess configured to receive an enclosure of an electrical device, the wall box further comprising at least one flexible member having a projection configured to be received in one of a plurality of detents of a notched surface when the electrical device is received in the recess of the body; wherein the flexible member of the wall box is configured to flex as the electrical device is rotated to allow the projection to be received in other ones of the plurality of detents of the notched surface, and an electrical device comprising: an enclosure defining a notched surface that is curved and has the plurality of detents, each of the plurality of detents of the notched surface being configured to receive the projection of the wall box; wherein the electrical device is configured to be rotated after the electrical device is inserted into a recess of the wall box to allow the projection of the wall box to be received in other ones of the plurality of detents of the notched surface, the electrical device being configured to be rotated to allow for alignment of the electrical device after installation into the wall box.
Cooling system intended to be used in an aircraft which comprises at least one fuel cell , an evaporator and at least one power electronic equipment item , the cooling system comprising a cooling circuit in which a coolant circulates, the cooling circuit comprising: - a first loop intended to cool said at least one fuel cell and on which there is a ram air heat exchanger , called primary, and a first temperature sensor ; - a second loop intended to cool said at least one power electronic equipment item and to supply heat to the evaporator to gasify dihydrogen in order to supply said at least one fuel cell , a second temperature sensor being present on the second loop ; - a controller configured to adjust the opening of a first valve at the input of the primary ram air heat exchanger and a second valve on a recirculation branch of the first loop , so as to regulate the temperature of a coolant at the input of said at least one fuel cell ; the cooling circuit being such that the first loop and the second loop are interconnected by a flow line and by a return line , the flow line starting at the output of the primary ram air heat exchanger and being controlled in opening by the controller , so as to regulate the temperature of the coolant at the input of said at least one power electronic equipment item , the controller being configured to regulate said temperatures of the coolant according to temperature measurements performed by the first temperature sensor and by the second temperature sensor . - a first loop intended to cool said at least one fuel cell and on which there is a ram air heat exchanger , called primary, and a first temperature sensor ; - a second loop intended to cool said at least one power electronic equipment item and to supply heat to the evaporator to gasify dihydrogen in order to supply said at least one fuel cell , a second temperature sensor being present on the second loop ; - a controller configured to adjust the opening of a first valve at the input of the primary ram air heat exchanger and a second valve on a recirculation branch of the first loop , so as to regulate the temperature of a coolant at the input of said at least one fuel cell ; the cooling circuit being such that the first loop and the second loop are interconnected by a flow line and by a return line , the flow line starting at the output of the primary ram air heat exchanger and being controlled in opening by the controller , so as to regulate the temperature of the coolant at the input of said at least one power electronic equipment item , the controller being configured to regulate said temperatures of the coolant according to temperature measurements performed by the first temperature sensor and by the second temperature sensor .
A fiber optic cable assembly, the assembly comprising: a fiber optic cable , the fiber optic cable having a fibrous strength element ; a crimp body , the crimp body having at least one end adapted to receive the fiber optic cable , the at least one end having a crimp zone , the crimp zone including at least one compression area and at least one hoop about the compression area ; and a crimp band , the crimp band crimped over the strength elements and crimp zone of the crimp body , and including at least one indentation defining at least one compression surface and at least one rib defining at least one rib interior , the crimp band and the crimp body cooperating to grip the strength element and resist a cable pull off force with the at least one rib interior of the crimp band generally surrounding the hoop , wherein the cable pull off force being from about 890 Newton to about 2670 Newton. a fiber optic cable , the fiber optic cable having a fibrous strength element ; a crimp body , the crimp body having at least one end adapted to receive the fiber optic cable , the at least one end having a crimp zone , the crimp zone including at least one compression area and at least one hoop about the compression area ; and a crimp band , the crimp band crimped over the strength elements and crimp zone of the crimp body , and including at least one indentation defining at least one compression surface and at least one rib defining at least one rib interior , the crimp band and the crimp body cooperating to grip the strength element and resist a cable pull off force with the at least one rib interior of the crimp band generally surrounding the hoop , wherein the cable pull off force being from about 890 Newton to about 2670 Newton.
Process for preparing an extract from a resin of Boswellia serrata, wherein the content in the extract of each of limonene, linalool, and thujone is less than 20 ppm and the content of estragole is less than 100 ppm, wherein the content is calculated based on the dry weight of the extract, the process comprising the steps of: a) contacting the resin with an extraction solvent to obtain an extraction solution, wherein the extraction solvent comprises a first organic solvent miscible with water, or a supercritical fluid, or a mixture thereof; b) separating insoluble components from said extraction solution, c) concentrating said extraction solution by evaporation and/or distillation, d) optionally adding a lipid phase, e) concentrating the obtained extraction solution by distillation and/or evaporation; f) purification of the obtained concentrate by adding water and distillation, followed by evaporation, and finally obtaining a dry extract, or, if a lipid phase was added in step f), obtaining a liquid or semi-solid extract, wherein the pH of the extraction solvent, the extraction solution and the concentrate is 7 or less, wherein the distillation step in step c), e) and/or f) comprises heating the concentrate to a temperature from 70° to 100°C at a reduced pressure of from 100 to 950 mbar and wherein the evaporation step in step c), e) and/or f) is carried out at a temperature from 40° to 90°C and at a pressure from 5 to 300 mbar. a) contacting the resin with an extraction solvent to obtain an extraction solution, wherein the extraction solvent comprises a first organic solvent miscible with water, or a supercritical fluid, or a mixture thereof; b) separating insoluble components from said extraction solution, c) concentrating said extraction solution by evaporation and/or distillation, d) optionally adding a lipid phase, e) concentrating the obtained extraction solution by distillation and/or evaporation; f) purification of the obtained concentrate by adding water and distillation, followed by evaporation, and finally