mhurhangee/ep-ind-claims huggingface dataset:
A MEMS device comprising: a first substrate; a second substrate that is disposed laminated on the first substrate; and a functional element that is disposed between the first substrate and the second substrate, characterised in that the functional element is disposed on the second substrate, and in that the second substrate is smaller than the first substrate, and in planar view, an end portion of the second substrate is disposed inside an end portion of the first substrate. a first substrate; a second substrate that is disposed laminated on the first substrate; and a functional element that is disposed between the first substrate and the second substrate, characterised in that the functional element is disposed on the second substrate, and in that the second substrate is smaller than the first substrate, and in planar view, an end portion of the second substrate is disposed inside an end portion of the first substrate.
A terminal apparatus comprising: a transmitter configured to transmit a Physical Uplink Control Channel, PUCCH, and a shortened Physical Uplink Shared Channel, sPUSCH, in an identical subframe, a receiver configured to receive a Physical Downlink Control Channel, PDCCH, and the transmitter further configured to stop a transmission of the PUCCH within the subframe in a case that the receiver detects the PDCCH with downlink control information corresponding to the sPUSCH in the subframe in a primary cell and the transmitter already starts the transmission of the PUCCH in the subframe in the primary cell, wherein the sPUSCH is used to transmit an uplink shared channel and mapped to a shortened Transmission Time Interval, sTTI, in the subframe, the sTTI comprises two, three or seven SC-FDMA symbols, and the subframe comprises fourteen SC-FDMA symbols. a transmitter configured to transmit a Physical Uplink Control Channel, PUCCH, and a shortened Physical Uplink Shared Channel, sPUSCH, in an identical subframe, a receiver configured to receive a Physical Downlink Control Channel, PDCCH, and the transmitter further configured to stop a transmission of the PUCCH within the subframe in a case that the receiver detects the PDCCH with downlink control information corresponding to the sPUSCH in the subframe in a primary cell and the transmitter already starts the transmission of the PUCCH in the subframe in the primary cell, wherein the sPUSCH is used to transmit an uplink shared channel and mapped to a shortened Transmission Time Interval, sTTI, in the subframe, the sTTI comprises two, three or seven SC-FDMA symbols, and the subframe comprises fourteen SC-FDMA symbols.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving first configuration information related to a physical downlink shared channel, PDSCH via Radio Resource Control, RRC, signaling, wherein the first configuration information includes a list of Transmission Configuration Indicator, TCI, states, and up to 128 TCI states are configured per Component Carrier, CC; receiving second configuration information via RRC signaling, wherein the second configuration information includes a plurality of lists, wherein each of the plurality of lists is a list of CCs; receiving a Medium Access Control Control Element, MAC CE, which activates up to 8 TCI states; receiving downlink control information, DCI, for scheduling of the PDSCH; and receiving the PDSCH based on the DCI, wherein one of the up to 8 TCI states is indicated based on the DCI, wherein, based on one of the plurality of lists being determined by an indication of a 5 bit field in the MAC CE, the up to 8 TCI states are activated for the CCs in the indicated list of the plurality of lists and downlink bandwidth parts, DL BWPs, and wherein the DL BWPs are all DL BWPs in the CCs in the indicated list of the plurality of lists. receiving first configuration information related to a physical downlink shared channel, PDSCH via Radio Resource Control, RRC, signaling, wherein the first configuration information includes a list of Transmission Configuration Indicator, TCI, states, and up to 128 TCI states are configured per Component Carrier, CC; receiving second configuration information via RRC signaling, wherein the second configuration information includes a plurality of lists, wherein each of the plurality of lists is a list of CCs; receiving a Medium Access Control Control Element, MAC CE, which activates up to 8 TCI states; receiving downlink control information, DCI, for scheduling of the PDSCH; and receiving the PDSCH based on the DCI, wherein one of the up to 8 TCI states is indicated based on the DCI, wherein, based on one of the plurality of lists being determined by an indication of a 5 bit field in the MAC CE, the up to 8 TCI states are activated for the CCs in the indicated list of the plurality of lists and downlink bandwidth parts, DL BWPs, and wherein the DL BWPs are all DL BWPs in the CCs in the indicated list of the plurality of lists.
A system comprising: a robotic arm having a first end and a recessed portion that is indented within the robotic arm; a plurality of grabbers (16a, 16b) coupled to the robotic arm at the first end; a sensor coupled to the robotic arm and positioned inside the recessed portion of the robotic arm, the sensor being positioned on the robotic arm at a first angle greater than zero degrees relative to the robotic arm; and a preparation cup coupled to wings, the wings having a body portion, a first extended portion, and a second extended portion; wherein the body portion of the wings is coupled to a portion of the preparation cup, the first extended portion extends in a first direction and the second extended portion extends in a second direction, wherein the wings are operable to be removably coupled to the plurality of grabbers by magnetically coupling the first and second extended portions to one or more magnets (150a, 150b) positioned inside the plurality of grabbers. a robotic arm having a first end and a recessed portion that is indented within the robotic arm; a plurality of grabbers (16a, 16b) coupled to the robotic arm at the first end; a sensor coupled to the robotic arm and positioned inside the recessed portion of the robotic arm, the sensor being positioned on the robotic arm at a first angle greater than zero degrees relative to the robotic arm; and a preparation cup coupled to wings, the wings having a body portion, a first extended portion, and a second extended portion; wherein the body portion of the wings is coupled to a portion of the preparation cup, the first extended portion extends in a first direction and the second extended portion extends in a second direction, wherein the wings are operable to be removably coupled to the plurality of grabbers by magnetically coupling the first and second extended portions to one or more magnets (150a, 150b) positioned inside the plurality of grabbers.
A compound comprising (a) from 40 to 85% by weight of a polyether or polyester thermoplastic polyurethane; (b) from 5 to 35% by weight of_a vulcanized vegetable oil; (c) from 5 to 30% by weight of a plasticizer; and (d) optionally, one or more further additives selected from lubricants, antioxidants, fillers, pigments, expanding agents and further polymers, in particular ethylene vinyl acetate, wherein the compound has a melt flow index determined according to the ASTM D1238 method with 5 kg/190°C lower than 60 g/10 min, and wherein the thermoplastic polyurethane has a hardness of between 65 and 85 Shore A if it contains a plasticizer and between 65 Shore A and 45 Shore D without plasticizer and the compound itself has a hardness of between 55 Shore A and 90 Shore A, wherein the hardness is determined according to the ASTM D2240 method. (a) from 40 to 85% by weight of a polyether or polyester thermoplastic polyurethane; (b) from 5 to 35% by weight of_a vulcanized vegetable oil; (c) from 5 to 30% by weight of a plasticizer; and (d) optionally, one or more further additives selected from lubricants, antioxidants, fillers, pigments, expanding agents and further polymers, in particular ethylene vinyl acetate,
Lamp, having • a lamp housing, formed by an elongated profile element and two front parts, that close the front sides of the profile element, and having a light exit opening provided for emitting light at a longitudinal side, • an at least partially light-permeable covering profile detachably mounted in the light exit opening of the lamp housing, • a sealing element, effective between the lamp housing and the covering profile, arranged alongside the longitudinal sides of the lamp housing in a sealing receiver of the profile element, wherein the front parts have a receiver, continuing the sealing receiver of the profile element, for the sealing element, characterized in that the covering profile has a support surface for the circumferential sealing element, wherein the support surface is longer in the area of the front parts than the sealing element and the front parts have a hollow space thus making the elongated expansion or shrinking of the covering profile not visible for the user. • a lamp housing, formed by an elongated profile element and two front parts, that close the front sides of the profile element, and having a light exit opening provided for emitting light at a longitudinal side, • an at least partially light-permeable covering profile detachably mounted in the light exit opening of the lamp housing, • a sealing element, effective between the lamp housing and the covering profile, arranged alongside the longitudinal sides of the lamp housing in a sealing receiver of the profile element,
An alloy comprising the following elements, by weight: a. 13.7 to 14.3 percent chromium, b. 5.0 to 10.0 percent cobalt, c. 3.5 to 5.2 percent tungsten, d. 3.68 to 4.3 percent titanium, e. 2.8 to 4.6 percent aluminum, f. 3.1 to 3.5 percent tantalum, g. 1.0 to 1.7 percent molybdenum, h. 0.08 to 0.13 percent carbon, i. 0.005 to 0.02 percent boron, j. 0.0 to 1.5 percent niobium, k. 0.0 to 2.5 percent hafnium, l. 0.0 to 0.04 percent zirconium, m. the balance nickel. a. 13.7 to 14.3 percent chromium, b. 5.0 to 10.0 percent cobalt, c. 3.5 to 5.2 percent tungsten, d. 3.68 to 4.3 percent titanium, e. 2.8 to 4.6 percent aluminum, f. 3.1 to 3.5 percent tantalum, g. 1.0 to 1.7 percent molybdenum, h. 0.08 to 0.13 percent carbon, i. 0.005 to 0.02 percent boron, j. 0.0 to 1.5 percent niobium, k. 0.0 to 2.5 percent hafnium, l. 0.0 to 0.04 percent zirconium, m. the balance nickel.
A hydraulic circuit comprising: - a central hydraulic pressure supply, - a central controller, - a hydraulic actuator, and - a local pump unit for controlling the hydraulic actuator, said local pump unit comprising: a plurality of hydraulic ports; an electric motor; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator, characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply. - a central hydraulic pressure supply, - a central controller, - a hydraulic actuator, and - a local pump unit for controlling the hydraulic actuator, said local pump unit comprising: a plurality of hydraulic ports; an electric motor; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator, characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply. a plurality of hydraulic ports; an electric motor; a one-way hydraulic pump coupled to said hydraulic ports and powered by said electric motor to provide a high pressure fluid output; a pressure sensor for detecting when a central hydraulic pressure provided by the central hydraulic pressure supply is below a selected value; and a means for connecting a high pressure fluid output from said one-way hydraulic pump to the hydraulic actuator, characterized in that the local pump unit is adapted to be activated, in a sequential power mode, when the pressure sensor detects that the central hydraulic pressure is below the selected value, and in a parallel power mode, by a command from a central controller, wherein, in the parallel power mode, the hydraulic actuator is provided with hydraulic pressure by both the local pump unit and the central hydraulic pressure supply.
Fuel overflow valve for a fuel injection device, in particular for pressure limitation in a low-pressure region of the fuel injection device, having a valve element which is arranged in movable fashion in a receptacle and which is loaded in a closing direction by a valve spring and in an opening direction by the pressure prevailing in the low-pressure region (19, 52), wherein, by way of the overflow valve, when the opening pressure thereof is reached, a connection of the low-pressure region (19, 52) to a return line is opened, wherein a valve carrier is arranged fixedly in the receptacle, wherein the valve carrier has a sleeve-shaped section on which the valve element, which is of ring-shaped form, is guided in displaceable fashion, wherein, by way of the valve element, a connection running through the sleeve-shaped section to the return line is controlled, wherein the valve carrier has a ring-shaped collar which adjoins the sleeve-shaped section and by way of which the valve carrier is held in the receptacle, characterized in that, in the receptacle, a ring-shaped chamber is delimited by the ring-shaped collar and by the valve element, into which ring-shaped chamber a connection to the low-pressure region issues.
A method for establishing a connection between a Neutral Host, NH, network and one or more virtual radio access networks, vRANs, under a service level agreement, SLA, therebetween, the method comprising: - sending, by a decentralized unit, DU (204; 304) of the NH network, a message to a Radio Control Function, RCF, of a centralized unit, CU, of the one or more vRANs, the message including an identity of the NH network and at least a first radio parameter; - in response to the message, receiving, by the DU (204; 304), from the RCF, an identity of the one or more vRANs and at least a second radio parameter; and - establishing the connection between the NH network and the one or more vRANs, based on the identity of the one or more vRANs, the identity of the NH network and one of the at least first radio parameter and the at least second radio parameter, by establishing a connection between the RCF and the DU (204; 304). - sending, by a decentralized unit, DU (204; 304) of the NH network, a message to a Radio Control Function, RCF, of a centralized unit, CU, of the one or more vRANs, the message including an identity of the NH network and at least a first radio parameter; - in response to the message, receiving, by the DU (204; 304), from the RCF, an identity of the one or more vRANs and at least a second radio parameter; and - establishing the connection between the NH network and the one or more vRANs, based on the identity of the one or more vRANs, the identity of the NH network and one of the at least first radio parameter and the at least second radio parameter, by establishing a connection between the RCF and the DU (204; 304).
An air conditioner unit for generating a conditioned air flow for an air conditioner system including a sleeping enclosure defining a sleeping space into which conditioned air is adapted to be delivered from one end or side of the sleeping space in a manner which maximizes contact between the conditioned air and a person or persons in the sleeping enclosure, the air conditioner unit including: (a) a heat emitting side including: (i) a room air inlet; (ii) a condenser fan; (iii) a condenser heat exchanger; and (iv) a hot air outlet located on a top side of the unit for directing hot air in an upward direction; and (b) a heat absorbing side including: (i) the return air inlet; (ii) an evaporator fan; (iii) an evaporator; (iv) air straightener; (v) a cool air outlet located in an upper section of the unit; and (vi) a curved cold air deflector coupled to the cool air outlet for directing the cold air flow towards a person or into the sleeping enclosure when arranged in an open condition; and (c) a motor for driving the evaporator fan and the condenser fan, characterised in that the air straightener comprises a section of open cell plastic foam for reducing vorticity in the airflow, the enclosure including an upper air pervious section and a lower relatively air impervious section adapted to surround a bed in the sleeping enclosure and configured to minimize passage of the conditioned air from the sleeping enclosure through the pervious section or other leakage paths. (a) a heat emitting side including: (i) a room air inlet; (ii) a condenser fan; (iii) a condenser heat exchanger; and (iv) a hot air outlet located on a top side of the unit for directing hot air in an upward direction; and (i) a room air inlet; (ii) a condenser fan; (iii) a condenser heat exchanger; and (iv) a hot air outlet located on a top side of the unit for directing hot air in an upward direction; and (b) a heat absorbing side including: (i) the return air inlet; (ii) an evaporator fan; (iii) an evaporator; (iv) air straightener; (v) a cool air outlet located in an upper section of the unit; and (vi) a curved cold air deflector coupled to the cool air outlet for directing the cold air flow towards a person or into the sleeping enclosure when arranged in an open condition; and (i) the return air inlet; (ii) an evaporator fan; (iii) an evaporator; (iv) air straightener; (v) a cool air outlet located in an upper section of the unit; and (vi) a curved cold air deflector coupled to the cool air outlet for directing the cold air flow towards a person or into the sleeping enclosure when arranged in an open condition; and (c) a motor for driving the evaporator fan and the condenser fan,
A method, comprising: determining an amount of twist as a function of length of a portion of a towed object based on output of a plurality of tilt sensors in the portion of the towed object and a model that describes the twist along the portion of the towed object, characterized in that determining the amount of twist based on the output and the model comprises performing a regression analysis on the output of the plurality of tilt sensors and a respective position of each of the plurality of tilt sensors along the length of the portion of the towed object; and determining an orientation of a seismic sensor in the portion of the towed object based on the determined amount of twist and a position of the seismic sensor along the length of the portion of the towed object. determining an amount of twist as a function of length of a portion of a towed object based on output of a plurality of tilt sensors in the portion of the towed object and a model that describes the twist along the portion of the towed object, characterized in that determining the amount of twist based on the output and the model comprises performing a regression analysis on the output of the plurality of tilt sensors and a respective position of each of the plurality of tilt sensors along the length of the portion of the towed object; and determining an orientation of a seismic sensor in the portion of the towed object based on the determined amount of twist and a position of the seismic sensor along the length of the portion of the towed object.
An apparatus for providing slot placement, the apparatus comprising: a data storage; and a processor communicatively connected to the data storage, the processor being configured to: determine a plurality of slots to be placed within a plurality of containers, wherein the containers are racks in a data center; determine a plurality of redundancy parameters based on communication redundancy between at least a portion of the plurality of slots; and characterized in that the processor is configured to determine a placement of the plurality of slots in the plurality of containers based on the plurality of redundancy parameters. a data storage; and a processor communicatively connected to the data storage, the processor being configured to: determine a plurality of slots to be placed within a plurality of containers, wherein the containers are racks in a data center; determine a plurality of redundancy parameters based on communication redundancy between at least a portion of the plurality of slots; and characterized in that the processor is configured to determine a placement of the plurality of slots in the plurality of containers based on the plurality of redundancy parameters. determine a plurality of slots to be placed within a plurality of containers, wherein the containers are racks in a data center; determine a plurality of redundancy parameters based on communication redundancy between at least a portion of the plurality of slots; and characterized in that the processor is configured to determine a placement of the plurality of slots in the plurality of containers based on the plurality of redundancy parameters.