mhurhangee/ep-ind-claims huggingface dataset:
A system implemented in a base station associated with a wireless network, where the base station receives uplink time division multiplexed TDM transmissions from a user device, the system comprising: a first filter to filter uplink TDM transmissions, associated with the user device, during a first period of time when the user device is transmitting on an uplink data channel to generate a first interference estimate, wherein the first interference estimate includes an estimate of signal power associated with the user device transmitting on the uplink data channel; a second filter to filter uplink TDM transmissions, associated with the user device, during a second period of time when the user device is not transmitting on the uplink DCH to generate a second interference estimate, wherein the second interference estimate includes an estimate of interference associated with another user device transmitting on the uplink data channel; a third filter to filter uplink TDM transmissions, associated with the user device, continuously during the first and second periods of time, to generate a third interference estimate, wherein the third interference estimate includes an estimate of interference associated with other user devices transmitting on an uplink control channel and an estimate of signal power associated with the user device transmitting on the uplink control channel; and a power control unit to determine one or more power control commands for sending to the user device based on the first, second and third interference estimates. a first filter to filter uplink TDM transmissions, associated with the user device, during a first period of time when the user device is transmitting on an uplink data channel to generate a first interference estimate, wherein the first interference estimate includes an estimate of signal power associated with the user device transmitting on the uplink data channel; a second filter to filter uplink TDM transmissions, associated with the user device, during a second period of time when the user device is not transmitting on the uplink DCH to generate a second interference estimate, wherein the second interference estimate includes an estimate of interference associated with another user device transmitting on the uplink data channel; a third filter to filter uplink TDM transmissions, associated with the user device, continuously during the first and second periods of time, to generate a third interference estimate, wherein the third interference estimate includes an estimate of interference associated with other user devices transmitting on an uplink control channel and an estimate of signal power associated with the user device transmitting on the uplink control channel; and a power control unit to determine one or more power control commands for sending to the user device based on the first, second and third interference estimates.
Dental composition comprising at least one salicylic acid ester derivative and a calcium source wherein said calcium source is different from calcium hydroxide; wherein said dental composition is presented as two distinct components, one comprising at least one of salicylate ester derivative and another comprising a calcium source; wherein the component comprising at least one of salicylate ester derivative comprises from 10% to 50% of disalicylate ester, from 30% to 80% of bismuth oxide and from 0.1% to 10% of titanium dioxide; and wherein the component comprising a calcium source comprises from 10 % to 50 % of mineral aggregated trioxide from 30 % to 80 % of n-ethyl-p,o-toluene sulfonamide and from 0.1 % to 10 % of titanium dioxide.
An air conditioning system comprising: an air conditioner having at least: an outdoor machine having a compressor, an outdoor heat exchanger and an expansion valve; a convective indoor machine; and a refrigerant piping connecting them; and a radiant indoor machine which is arranged between the convective indoor machine and the outdoor machine and has a refrigerant pipe connecting between the convective indoor machine and the outdoor machine and having an inner diameter smaller than that of the refrigerant piping; wherein the refrigerant pipe of the radiant indoor machine includes a plurality of vertically juxtaposed straight pipes and connection pipes connecting between upper ends of the adjacent straight pipes and between lower ends thereof, and is meanderingly formed; wherein the plurality of straight pipes each are covered with a heat radiating part; characterized in that the heat radiating part has an oval shape and is constituted by two parts sandwiching the straight pipe from both sides, and the two parts are connected by engagement of contact parts by pressure contact to the straight pipe, wherein the strength of pressure contact is set to the extent that the heat radiating part can rotate around the straight pipe. an air conditioner having at least: an outdoor machine having a compressor, an outdoor heat exchanger and an expansion valve; a convective indoor machine; and a refrigerant piping connecting them; and a radiant indoor machine which is arranged between the convective indoor machine and the outdoor machine and has a refrigerant pipe connecting between the convective indoor machine and the outdoor machine and having an inner diameter smaller than that of the refrigerant piping;
An instrument for controlled delivery of a device to a target area near a defect of a bone, comprising: a guide frame comprising a rail (112, 122) having a plurality of device portals for guiding the device for insertion to the bone, the portals on the rail arranged in a matrix, each portal defining a trajectory, the guide frame further including at least one visual marker (134, 144) for aligning the guide frame to the bone using an anatomical landmark on the bone to be treated; a holder, for releasable attachment with the guide frame, said holder having a handle; wherein each device portal has a predetermined angular orientation to a top surface of the bone to provide accurate and controlled delivery of the device to the target area. a guide frame comprising a rail (112, 122) having a plurality of device portals for guiding the device for insertion to the bone, the portals on the rail arranged in a matrix, each portal defining a trajectory, the guide frame further including at least one visual marker (134, 144) for aligning the guide frame to the bone using an anatomical landmark on the bone to be treated; a holder, for releasable attachment with the guide frame, said holder having a handle; wherein each device portal has a predetermined angular orientation to a top surface of the bone to provide accurate and controlled delivery of the device to the target area.
A process for synthesizing an amido alkyl betaine from a linear alcohol having from 8 to 22 carbon atoms, characterized in that a) in a first step, a linear alcohol having from 8 to 22 carbon atoms is condensed with an acrylonitrile to produce a β-alkoxy nitrile; b) in a second step, the β-alkoxy nitrile obtained from step a) is reacted with a short chain alcohol having from 1 to 4 carbon atoms to produce a β-alkoxy alkyl ester; c) in a third step, said β-alkoxy alkyl ester is reacted with an amino alkyl amine to produce an amido amine; and d) in a fourth step, said amido amine is reacted with an alkylating agent to produce an amido alkyl betaine. a) in a first step, a linear alcohol having from 8 to 22 carbon atoms is condensed with an acrylonitrile to produce a β-alkoxy nitrile; b) in a second step, the β-alkoxy nitrile obtained from step a) is reacted with a short chain alcohol having from 1 to 4 carbon atoms to produce a β-alkoxy alkyl ester; c) in a third step, said β-alkoxy alkyl ester is reacted with an amino alkyl amine to produce an amido amine; and d) in a fourth step, said amido amine is reacted with an alkylating agent to produce an amido alkyl betaine.
A user terminal, in which a band to use is limited to a narrow band in a system band, the user terminal comprising: a receiving section configured to receive downlink control information which contains transmission acknowledgment information in response to an uplink data channel, via a downlink control channel that is repeatedly transmitted starting in a starting subframe of a cycle; and a control section configured to control retransmission of the uplink data channel based on the transmission acknowledgment information, wherein a timing for the transmission of the downlink control information is adjusted based on the starting subframe, wherein the control section is configured to control the retransmission of the uplink data channel in a narrow band specified by the downlink control information, and wherein the cycle is determined based on the number of repetitions of the downlink control channel. a receiving section configured to receive downlink control information which contains transmission acknowledgment information in response to an uplink data channel, via a downlink control channel that is repeatedly transmitted starting in a starting subframe of a cycle; and a control section configured to control retransmission of the uplink data channel based on the transmission acknowledgment information, wherein a timing for the transmission of the downlink control information is adjusted based on the starting subframe, wherein the control section is configured to control the retransmission of the uplink data channel in a narrow band specified by the downlink control information, and wherein the cycle is determined based on the number of repetitions of the downlink control channel.
A method performed by a user equipment, UE, configured to operate in a wireless communication system, the method comprising: monitoring, by the UE, first downlink control information, DCI, transmitted from a network in a UE specific search space, USS; determining a size of the first DCI based on an activated bandwidth part, BWP, among BWPs assigned to the UE, wherein a field indicating frequency resource allocation included in the first DCI is based on a bandwidth of the activated BWP; receiving, by the UE, a first downlink data scheduled by the first DCI from the network, wherein the first downlink data includes data specific to the UE; monitoring, by the UE, second DCI transmitted from the network in a common search space, CSS; determining a size of the second DCI based on an initial BWP among the BWPs assigned to the UE; and receiving, by the UE, a second downlink data scheduled by the second DCI from the network, wherein the second downlink data includes at least one of remaining minimum system information, RMSI, a random access response, RAR, and a paging. monitoring, by the UE, first downlink control information, DCI, transmitted from a network in a UE specific search space, USS; determining a size of the first DCI based on an activated bandwidth part, BWP, among BWPs assigned to the UE, wherein a field indicating frequency resource allocation included in the first DCI is based on a bandwidth of the activated BWP; receiving, by the UE, a first downlink data scheduled by the first DCI from the network, wherein the first downlink data includes data specific to the UE; monitoring, by the UE, second DCI transmitted from the network in a common search space, CSS; determining a size of the second DCI based on an initial BWP among the BWPs assigned to the UE; and receiving, by the UE, a second downlink data scheduled by the second DCI from the network, wherein the second downlink data includes at least one of remaining minimum system information, RMSI, a random access response, RAR, and a paging.
A tantalum carbide-coated carbon material comprising: a carbon substrate; and a tantalum carbide coating film on which the carbon substrate is provided, the tantalum carbide coating film having a maximum peak value of at least 80 degrees in an orientation angle of a plane corresponding to a diffraction peak of tantalum carbide as determined by X-ray diffraction in accordance with the description, wherein, the sum of diffraction intensities of the plane and the plane of tantalum carbon crystals in the X-ray diffraction is not lower than 0.5 and not higher than 0.9 as compared to the total sum of diffraction intensities of all crystal planes of the tantalum carbon crystals in the X-ray diffraction, wherein the total sum of the X-ray diffraction intensities of the respective crystal planes, is the total sum of the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, and the X-ray diffraction intensity corresponding to the plane. a carbon substrate; and a tantalum carbide coating film on which the carbon substrate is provided, the tantalum carbide coating film having a maximum peak value of at least 80 degrees in an orientation angle of a plane corresponding to a diffraction peak of tantalum carbide as determined by X-ray diffraction in accordance with the description, wherein, the sum of diffraction intensities of the plane and the plane of tantalum carbon crystals in the X-ray diffraction is not lower than 0.5 and not higher than 0.9 as compared to the total sum of diffraction intensities of all crystal planes of the tantalum carbon crystals in the X-ray diffraction, wherein the total sum of the X-ray diffraction intensities of the respective crystal planes, is the total sum of the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, the X-ray diffraction intensity corresponding to the plane, and the X-ray diffraction intensity corresponding to the plane.
An aerosolized composition comprising a therapeutically effective amount of mitochondria for use in a method of treating a subject having a respiratory disorder, the method comprising administering said composition to the subject through respiratory tract, wherein the composition comprises respiration-competent mitochondria.
A medical device assembly for removable insertion into a catheter residing within a patient's body cavity, the catheter being provided with a lumen, the medical device assembly comprising: an electromagnetic radiation source for providing non-ultraviolet, therapeutic EMR having an intensity comprising a radiant exposure of at least 0.1 J/cm 2 up to 1 kJ/cm 2 and power of at least 0.005 mW up to 1 W, such intensity being sufficient to cause a therapeutic effect of at least one of inactivating one or more infectious agents and promoting healing, such that the medical device assembly provides sterilizing EMR and healing EMR alternatively, alternatingly or simultaneously; a removable EMR conduction system comprising an optical element connector and an optical element, wherein the optical element is at least partially insertable into and removable from the lumen of the catheter while the catheter resides within the patient's body cavity, the optical element having an elongate body conducive to the axial propagation of the therapeutic EMR through the elongate body, the elongate body having an exterior surface between a proximal coupling end and an distal end tip, the exterior surface having at least one modified portion permitting the radial emission of therapeutic EMR radially from the elongate body; and a coupling to connect the EMR source to the optical element connector of the EMR conduction system. an electromagnetic radiation source for providing non-ultraviolet, therapeutic EMR having an intensity comprising a radiant exposure of at least 0.1 J/cm 2 up to 1 kJ/cm 2 and power of at least 0.005 mW up to 1 W, such intensity being sufficient to cause a therapeutic effect of at least one of inactivating one or more infectious agents and promoting healing, such that the medical device assembly provides sterilizing EMR and healing EMR alternatively, alternatingly or simultaneously; a removable EMR conduction system comprising an optical element connector and an optical element, wherein the optical element is at least partially insertable into and removable from the lumen of the catheter while the catheter resides within the patient's body cavity, the optical element having an elongate body conducive to the axial propagation of the therapeutic EMR through the elongate body, the elongate body having an exterior surface between a proximal coupling end and an distal end tip, the exterior surface having at least one modified portion permitting the radial emission of therapeutic EMR radially from the elongate body; and a coupling to connect the EMR source to the optical element connector of the EMR conduction system.
A container, such as an assortment box, comprising a storage assembly, wherein said storage assembly is for storing contents inside said container, where said storage assembly comprises at least one storage unit and a reception layer fixated inside said container, wherein said at least one storage unit is adapted to be connected to said reception layer in a releasable manner by use of a first connection means, characterised in that said reception layer is fixated with an inner part of the container in a releasable manner by use of a second connection means, where said first connection means comprises at least one releasable snap engagement and at least one protruding part (22,22',22",22"') and one recess part, and where a tap (24,24') of the at least one releasa-ble snap engagement and said at least one protruding part (22,22',22",22'") are arranged on and protruding from a lower surface of the storage unit, and the reception layer comprises symmetrically distributed recesses and slots of the first connection means, said slots for receiving said tap (24,24') and said recesses for receiving said at least one protruding part (22,22',22",22"').
A heat storage system comprising: a compressor for compressing refrigerant; a heat storage tank for storing a heating medium; heat exchange means for heating the heating medium using heat of the refrigerant compressed by the compressor, the heat exchange means being provided outside the heat storage tank; a heat accumulating circuit including a feed path for feeding the heating medium flowing out of the heat storage tank to the heat exchange means, a return path for returning the heating medium heated by the heat exchange means into the heat storage tank, and a pump for circulating the heating medium; and control means capable of executing an initial operation configured to control an operating frequency of the compressor at a beginning of a heat accumulating operation in which the heating medium heated by the heat exchange means is accumulated in the heat storage tank, characterized in that the initial operation includes a first operation configured to maintain the operating frequency at a first frequency and a second operation after the first operation, the second operation being configured to maintain the operating frequency at a second frequency higher than the first frequency, wherein the control means is configured to execute the initial operation when the heat accumulating operation is performed during nighttime hours, and is configured not to execute the initial operation when the heat accumulating operation is performed during hours other than the nighttime hours. a compressor for compressing refrigerant; a heat storage tank for storing a heating medium; heat exchange means for heating the heating medium using heat of the refrigerant compressed by the compressor, the heat exchange means being provided outside the heat storage tank; a heat accumulating circuit including a feed path for feeding the heating medium flowing out of the heat storage tank to the heat exchange means, a return path for returning the heating medium heated by the heat exchange means into the heat storage tank, and a pump for circulating the heating medium; and control means capable of executing an initial operation configured to control an operating frequency of the compressor at a beginning of a heat accumulating operation in which the heating medium heated by the heat exchange means is accumulated in the heat storage tank, characterized in that the initial operation includes a first operation configured to maintain the operating frequency at a first frequency and a second operation after the first operation, the second operation being configured to maintain the operating frequency at a second frequency higher than the first frequency, wherein the control means is configured to execute the initial operation when the heat accumulating operation is performed during nighttime hours, and is configured not to execute the initial operation when the heat accumulating operation is performed during hours other than the nighttime hours.
A vaccine vector comprising a polynucleotide encoding a HER3 polypeptide comprising SEQ ID NO: 1 or SEQ ID NO: 2, wherein the vaccine vector is selected from adenovirus or adeno-associated virus.
A telescope, consisting of a lens module (2, 20, 21, 23) and an ocular module (3, 19, 22) each having a connection interface (4, 5) for connecting the modules (2, 3, 19, 20, 21, 22, 23) by a user, wherein the telescope has at least one adjusting means for focusing, characterized in that - an ocular or ocular optical system with variable magnification is fixedly integrated in the ocular module (3, 19, 22), - at least one adjusting means for changing the magnification is arranged on the ocular module (3, 19, 22), and - the ocular module (3, 19, 22) comprises a unit designed as a prism system for inverting the image. - an ocular or ocular optical system with variable magnification is fixedly integrated in the ocular module (3, 19, 22), - at least one adjusting means for changing the magnification is arranged on the ocular module (3, 19, 22), and - the ocular module (3, 19, 22) comprises a unit designed as a prism system for inverting the image.
A method for determining at least one parameter of interest of a material, the method comprising: directing, using a radio frequency applicator, one or more RF energy pulses into a region of interest, the region of interest comprising a material having a parameter of interest and at least one reference, the material and the reference separated by at least one boundary; detecting, using an acoustic receiver, at least one multi-polar acoustic signal generated in the region of interest in response to the RF energy pulses, wherein the at least one multi-polar acoustic signal is an acoustic pressure wave; processing the at least one multi-polar acoustic signal to determine an electric field strength at the boundary; calculating a voltage standing wave ratio (VSWR) of the one or more RF energy pulses; monitoring a forward power and a reflected power of the one or more RF energy pulses to calculate the VSWR; and determining the at least one parameter of interest of the material based at least on the determined electric field strength and the VSWR. directing, using a radio frequency applicator, one or more RF energy pulses into a region of interest, the region of interest comprising a material having a parameter of interest and at least one reference, the material and the reference separated by at least one boundary; detecting, using an acoustic receiver, at least one multi-polar acoustic signal generated in the region of interest in response to the RF energy pulses, wherein the at least one multi-polar acoustic signal is an acoustic pressure wave; processing the at least one multi-polar acoustic signal to determine an electric field strength at the boundary; calculating a voltage standing wave ratio (VSWR) of the one or more RF energy pulses; monitoring a forward power and a reflected power of the one or more RF energy pulses to calculate the VSWR; and determining the at least one parameter of interest of the material based at least on the determined electric field strength and the VSWR.