mhurhangee/ep-ind-claims huggingface dataset:
A folder, comprising: one or more fold rollers mounted in fixed positions; an adjustable nip roller, the adjustable nip roller positioned adjacent to the one or more fold rollers to form a nip (41, 44, 46) having a nip spacing, the adjustable nip roller being mounted on a nip axis shaft, the nip axis shaft being mounted so as to be linearly movable to adjust the nip spacing; an adjustment mechanism for moving the nip axis shaft to adjust the nip spacing: characterised by the nip adjustment mechanism including: a bearing block cam follower on which the nip axis shaft is fixedly mounted and supported, the bearing block cam follower being linearly movable to move the nip axis shaft closer and farther from the one or more fold rollers; an eccentric cam in operative contact with the bearing block cam follower; and whereby rotation of the eccentric cam on the eccentric cam axis will drive the bearing block cam follower in its linear motion to adjust the nip spacing. one or more fold rollers mounted in fixed positions; an adjustable nip roller, the adjustable nip roller positioned adjacent to the one or more fold rollers to form a nip (41, 44, 46) having a nip spacing, the adjustable nip roller being mounted on a nip axis shaft, the nip axis shaft being mounted so as to be linearly movable to adjust the nip spacing; an adjustment mechanism for moving the nip axis shaft to adjust the nip spacing: characterised by the nip adjustment mechanism including: a bearing block cam follower on which the nip axis shaft is fixedly mounted and supported, the bearing block cam follower being linearly movable to move the nip axis shaft closer and farther from the one or more fold rollers; an eccentric cam in operative contact with the bearing block cam follower; and whereby rotation of the eccentric cam on the eccentric cam axis will drive the bearing block cam follower in its linear motion to adjust the nip spacing. a bearing block cam follower on which the nip axis shaft is fixedly mounted and supported, the bearing block cam follower being linearly movable to move the nip axis shaft closer and farther from the one or more fold rollers; an eccentric cam in operative contact with the bearing block cam follower; and whereby rotation of the eccentric cam on the eccentric cam axis will drive the bearing block cam follower in its linear motion to adjust the nip spacing.
A system having a display section, for displaying images on the display by computer processing, the system comprising: a plurality of first buffers each storing a plurality of pieces of image information generated by one or more applications, the image information including drawing information and transparency information of points on the display screen of the display section; a drawing section for drawing a multilayer image on the display screen by alphablending the image information in each of the first buffers according to the respective transparency information and by superposing them; a storage section for storing the threshold transparency of each layer; an input section for receiving positional information indicative of a position on the display screen from a user as a process request; and a destination determining section for determining, in response to reception of the positional information, whether the transparency information at the position indicated by the positional information and in the first buffer corresponding to each of the plurality of layers is larger than the threshold value of each layer, and determining, as the destination of the request, an application related to a layer for which a positive determination is made or an object contained in the application and located in said position on the display screen. a plurality of first buffers each storing a plurality of pieces of image information generated by one or more applications, the image information including drawing information and transparency information of points on the display screen of the display section; a drawing section for drawing a multilayer image on the display screen by alphablending the image information in each of the first buffers according to the respective transparency information and by superposing them; a storage section for storing the threshold transparency of each layer; an input section for receiving positional information indicative of a position on the display screen from a user as a process request; and a destination determining section for determining, in response to reception of the positional information, whether the transparency information at the position indicated by the positional information and in the first buffer corresponding to each of the plurality of layers is larger than the threshold value of each layer, and determining, as the destination of the request, an application related to a layer for which a positive determination is made or an object contained in the application and located in said position on the display screen.
A high resistivity thin film, comprising: silicon; and an insulator comprising at least one of alumina (Al 2 O 3) and silicon dioxide (Si0 2); and at least one additional material, said additional materials selected from a group consisting of chromium, nickel, boron and/or carbon, said silicon, insulator and additional materials combined to form a thin film having a resistivity (p) of at least 0.02 Ω-cm and a temperature coefficient of resistance of less than ±300 ppm/°C. silicon; and an insulator comprising at least one of alumina (Al 2 O 3) and silicon dioxide (Si0 2); and at least one additional material, said additional materials selected from a group consisting of chromium, nickel, boron and/or carbon, said silicon, insulator and additional materials combined to form a thin film having a resistivity (p) of at least 0.02 Ω-cm and a temperature coefficient of resistance of less than ±300 ppm/°C.
A compound represented by the general formula or a pharmaceutically acceptable salt thereof: wherein each of R 1 and R 2 represents a methyl group, D represents -CONH-, n is 1, and A represents a 6-5-system bicyclic heterocyclic group represented by the general formula: wherein --- represents a single or double bond, y represents a nitrogen atom and each of z, v, and w represents a carbon atom or each of v, w, and y represents a nitrogen atom and z represents a carbon, R 11, R 12, and R 13 may be substituted on any hydrogen atoms on the ring, are the same or different and each represents 1) a hydrogen atom, 2) a hydroxy group, 3) a trifluoromethyl group, 4) a trifluoroacetyl group, 5) a C1-6 alkyl group optionally substituted with substituent group(s) selected from halogen atoms, oxo groups, phenyl groups, -OR 14, or -OCOR 17, 6) a C1-6 alkoxy group, or 7) a C6-10 aryl group, R 14 represents a hydrogen atom, a C1-6 alkyl group, or a benzyl group, and R 17 represents a C1-6 alkyl group.
A method in a wireless LAN, WLAN, system, the method comprising: generating, by a first station, STA, supporting a plurality of space time streams, STSs, a first pilot sequence related with 56 subcarriers for three bonded channels based on a second pilot sequence related with 16 subcarriers and a third pilot sequence related with 12 subcarriers, wherein the second pilot sequence is set to one sequence among a plurality of second pilot sequences for the plurality of STSs, wherein the third pilot sequence is set to one sequence among a plurality of third pilot sequences for the plurality of STSs, wherein the plurality of the second pilot sequences for the plurality of STSs are mutually orthogonal, and wherein the plurality of the third pilot sequences for the plurality of STSs are mutually orthogonal, wherein a maximum number of the STSs supported by the first STA is eight, wherein the first pilot sequence is generated for each of the STSs; and transmitting, by the first STA to a second STA, a signal including the first pilot sequence for each of the STSs through the three bonded channels. generating, by a first station, STA, supporting a plurality of space time streams, STSs, a first pilot sequence related with 56 subcarriers for three bonded channels based on a second pilot sequence related with 16 subcarriers and a third pilot sequence related with 12 subcarriers, wherein the second pilot sequence is set to one sequence among a plurality of second pilot sequences for the plurality of STSs, wherein the third pilot sequence is set to one sequence among a plurality of third pilot sequences for the plurality of STSs, wherein the plurality of the second pilot sequences for the plurality of STSs are mutually orthogonal, and wherein the plurality of the third pilot sequences for the plurality of STSs are mutually orthogonal, wherein a maximum number of the STSs supported by the first STA is eight, wherein the first pilot sequence is generated for each of the STSs; and transmitting, by the first STA to a second STA, a signal including the first pilot sequence for each of the STSs through the three bonded channels.
An apparatus suitable for separating organics from a contaminated organics-inorganics waste stream comprising a hopper to receive the contaminated organics-inorganics waste stream from different sources, a vertical separator, and a conveyor configured to feed the vertical separator, wherein the vertical separator is contained in a round or rectangular housing that separates inorganics from the organics by creating a vortex effect within a perforated screening drum by which solid contaminants comprising paper, plastic, and/or metals are blown by air in a spiral pattern upwards and removed from a top of the vertical separator, while the organics are removed from a bottom of the vertical separator, an inner rotating paddle-drum to which a multiplicity of inclined paddles are attached to an external surface thereof creating a twister effect, characterized in that a plurality of chains are configured to rotate and prevent fouling of the paddles, the chains are attached to the external surface of the inner rotating paddle drum and adjacent to entrance of the perforated screening drum, wherein a length of the chains is greater than a radial dimension of the paddles but shorter than a radial distance between the inner rotating paddle-drum and the perforated screening drum waste stream comprising a hopper to receive the contaminated organics-inorganics waste stream from different sources, a vertical separator, and a conveyor configured to feed the vertical separator, wherein the vertical separator is contained in a round or rectangular housing that separates inorganics from the organics by creating a vortex effect within a perforated screening drum by which solid contaminants comprising paper, plastic, and/or metals are blown by air in a spiral pattern upwards and removed from a top of the vertical separator, while the organics are removed from a bottom of the vertical separator, an inner rotating paddle-drum to which a multiplicity of inclined paddles are attached to an external surface thereof creating a twister effect, characterized in that a plurality of chains are configured to rotate and prevent fouling of the paddles, the chains are attached to the external surface of the inner rotating paddle drum and adjacent to entrance of the perforated screening drum, wherein a length of the chains is greater than a radial dimension of the paddles but shorter than a radial distance between the inner rotating paddle-drum and the perforated screening drum
Valve bag for bulk material such as cement, gypsum, granulate, animal feed or the like, comprising a standing base and a valve tray which is opposite the standing base, wherein the standing base and/or valve tray are preferably formed as a cross or block bottom, and wherein a valve for filling the valve bag is incorporated in the valve tray, and wherein the bag is produced from a two-layer or multilayer blank made of a planar material, in particular paper and/or plastics material, and wherein the blank comprises a transverse adhesive bond (40, 40a) along at least one of the base-side edges thereof, which bond interconnects adjacent material layers (16, 18), wherein at least one of the base or tray (20, 30), having a transverse adhesive bond (40, 40a), is designed as a venting base which comprises a bottom fold in which the side flaps (28, 29, 38, 39) are folded about side fold lines (25, 26, 35, 36), extending in the longitudinal direction of the bottom, in order to form the bottom, wherein the width of the side flaps is such that, in the case of a joined venting base, a gap remains between the side flaps, and wherein the transverse adhesive bond comprises slots (42, 42a) in the region of the two side flaps of the venting base, which slots form an outlet for air escaping from the intermediate space between the material layers (16, 18).
A solid milk of compressed milk powder having a core/crust structure, wherein the solid milk is obtained by the method comprising a compression step, wherein milk particles are compressed to obtain a compressed and solid milk unit, then a moistening step, then a drying step, wherein: • the compression step is carried out with a compaction ratio comprised between 50 % and 80 %, • in the moistening step, water is sprayed on the outside surface of the compressed and solid milk unit with an amount comprised between 0.1 mg and 8 mg per cm 2 of the area of the said outside surface, the duration of the moistening step being less than 1 s, to obtain a moistened solid unit having a moistened outside layer of at least two rows of milk particles, • the drying step follows the moistening step less than 10 s, the duration of the drying step being less than 30 s, wherein the drying is carried out by applying short-wavelength infrared, so as to obtain the solid milk having a core/crust structure, the average thickness of the crust being at least the thickness of two rows of milk particles. • the compression step is carried out with a compaction ratio comprised between 50 % and 80 %, • in the moistening step, water is sprayed on the outside surface of the compressed and solid milk unit with an amount comprised between 0.1 mg and 8 mg per cm 2 of the area of the said outside surface, the duration of the moistening step being less than 1 s, to obtain a moistened solid unit having a moistened outside layer of at least two rows of milk particles, • the drying step follows the moistening step less than 10 s, the duration of the drying step being less than 30 s, wherein the drying is carried out by applying short-wavelength infrared, so as to obtain the solid milk having a core/crust structure, the average thickness of the crust being at least the thickness of two rows of milk particles.
A method for sending a Device to Device, D2D, signal, comprising: determining, by a first User Equipment, UE, a resource hopping pattern between a plurality of D2D transmission physical resources of the first UE, according to a preset D2D parameter; determining, by the first UE, the plurality of D2D transmission physical resources according to the resource hopping pattern; and sending, by the first UE, the D2D signal to a second UE over the determined D2D transmission physical resources; wherein determining, by the first UE, the plurality of D2D transmission physical resources according to the resource hopping pattern comprises: determining, by the first UE, an initial D2D transmission physical resource according to resource configuration information indicated by another UE; and determining, by the first UE, the other D2D transmission physical resources according to the resource hopping pattern and the initial D2D transmission physical resource. determining, by a first User Equipment, UE, a resource hopping pattern between a plurality of D2D transmission physical resources of the first UE, according to a preset D2D parameter; determining, by the first UE, the plurality of D2D transmission physical resources according to the resource hopping pattern; and sending, by the first UE, the D2D signal to a second UE over the determined D2D transmission physical resources; wherein determining, by the first UE, the plurality of D2D transmission physical resources according to the resource hopping pattern comprises: determining, by the first UE, an initial D2D transmission physical resource according to resource configuration information indicated by another UE; and determining, by the first UE, the other D2D transmission physical resources according to the resource hopping pattern and the initial D2D transmission physical resource. determining, by the first UE, an initial D2D transmission physical resource according to resource configuration information indicated by another UE; and determining, by the first UE, the other D2D transmission physical resources according to the resource hopping pattern and the initial D2D transmission physical resource.
A method implemented in a wireless transmit/receive unit, WTRU, the method comprising: determining whether a physical cell identity, PCI, of a neighbor closed subscriber group, CSG, cell corresponds to a predefined CSG cell range, wherein the predefined CSG cell range is a range of PCIs that corresponds to PCIs for hybrid cells and CSG cells; reporting information to a network indicating that the PCI corresponds to the predefined CSG cell range; and receiving, on a condition of reporting the information to the network indicating that the PCI is in the predefined CSG cell range, an indication to measure a cell global identity, CGI, of the neighbor CSG cell. determining whether a physical cell identity, PCI, of a neighbor closed subscriber group, CSG, cell corresponds to a predefined CSG cell range, wherein the predefined CSG cell range is a range of PCIs that corresponds to PCIs for hybrid cells and CSG cells; reporting information to a network indicating that the PCI corresponds to the predefined CSG cell range; and receiving, on a condition of reporting the information to the network indicating that the PCI is in the predefined CSG cell range, an indication to measure a cell global identity, CGI, of the neighbor CSG cell.
A sample support for sample ionization, comprising: a substrate formed with a plurality of through holes opening to a first surface and a second surface on a side opposite to the first surface; a conductive layer provided not to block the through hole in the first surface; characterized in that the substrate includes a reinforcement region including a plurality of the through holes and a measurement region including a plurality of the through holes, the plurality of through holes in the reinforcement region are filled with a reinforcement material, and the reinforcement material is not disposed inside the plurality of through holes in the measurement region. a substrate formed with a plurality of through holes opening to a first surface and a second surface on a side opposite to the first surface; a conductive layer provided not to block the through hole in the first surface; characterized in that the substrate includes a reinforcement region including a plurality of the through holes and a measurement region including a plurality of the through holes, the plurality of through holes in the reinforcement region are filled with a reinforcement material, and the reinforcement material is not disposed inside the plurality of through holes in the measurement region.
An in vitro method for estimating of the efficacy of anti-CLEVER-1 therapy in a patient in the treatment of cancer or chronic infection, when an antibody or fragment(s) thereof capable of binding to Common Lymphatic Endothelial and Vascular Endothelial Receptor-1 (CLEVER-1) has been administered in a patient, the method comprises the steps of (a) obtaining peripheral blood monocytes (PBLs) from a blood sample drawn from said patient, (b) measuring the TNF-alpha secretion of said PBLs and HLA-DR expression on CD14 positive PBLs, and (c) comparing values of the TNF-alpha secretion and the HLA-DR expression measured in step (b) to control values for an estimation of the efficacy of the anti-CLEVER-1 treatment, wherein the control values are the values measured before administering an antibody or fragment(s) thereof capable of binding to CLEVER-1 in the patient or the values of one or more previous measurements carried out at different time points in the same patient and wherein an increased TNF-alpha secretion and HLA-DR expression is indicative of modulation of M2 macrophages into M1 macrophages and the efficacy of anti-CLEVER-1 therapy. (a) obtaining peripheral blood monocytes (PBLs) from a blood sample drawn from said patient, (b) measuring the TNF-alpha secretion of said PBLs and HLA-DR expression on CD14 positive PBLs, and (c) comparing values of the TNF-alpha secretion and the HLA-DR expression measured in step (b) to control values for an estimation of the efficacy of the anti-CLEVER-1 treatment, wherein the control values are the values measured before administering an antibody or fragment(s) thereof capable of binding to CLEVER-1 in the patient or the values of one or more previous measurements carried out at different time points in the same patient and wherein an increased TNF-alpha secretion and HLA-DR expression is indicative of modulation of M2 macrophages into M1 macrophages and the efficacy of anti-CLEVER-1 therapy.
A radar system (100, 200) for a motor vehicle comprising: a plurality of transmitters (202a, 202b) for transmitting a radar signal comprising a continuous wave signal, a receiver for receiving the transmitted radar signal reflected by an object, a signal re-constructor coupled to the receiver, wherein each transmitter is configured to transmit at least part of the continuous wave signal during a time period and for each of a number of sample time periods during the time period combinations of at least some of the transmitters transmit, the signal re-constructor is configured to determine the coordinates of an object with respect to the radar system from a number of measurements of the received continuous wave signal equal to the number of sample time periods, characterised in that the radar system further comprises a signal generator coupled to the plurality of transmitters, the signal generator being configured to generate a continuous wave signal comprising a frequency modulated continuous wave chirp signal which repeats after the time period, a transmit controller coupled to each of the transmitters wherein the transmit controller is operable to route the continuous wave signal to at least one of the transmitters during each of the sample time periods, and wherein the transmit controller is configured to vary the combinations of transmitters used to transmit during the time period in at least one of a pseudo-random sequence, and a Gold code sequence. a plurality of transmitters (202a, 202b) for transmitting a radar signal comprising a continuous wave signal, a receiver for receiving the transmitted radar signal reflected by an object, a signal re-constructor coupled to the receiver, wherein each transmitter is configured to transmit at least part of the continuous wave signal during a time period and for each of a number of sample time periods during the time period combinations of at least some of the transmitters transmit, the signal re-constructor is configured to determine the coordinates of an object with respect to the radar system from a number of measurements of the received continuous wave signal equal to the number of sample time periods, characterised in that the radar system further comprises a signal generator coupled to the plurality of transmitters, the signal generator being configured to generate a continuous wave signal comprising a frequency modulated continuous wave chirp signal which repeats after the time period, a transmit controller coupled to each of the transmitters wherein the transmit controller is operable to route the continuous wave signal to at least one of the transmitters during each of the sample time periods, and wherein the transmit controller is configured to vary the combinations of transmitters used to transmit during the time period in at least one of a pseudo-random sequence, and a Gold code sequence.