mhurhangee/ep-ind-claims huggingface dataset:
Apparatus associated with an overlay network (404, 704, 804, 904, 1104,1204), comprising: one or more hardware processors (210, 212); computer memory associated with the one or more hardware processors and in which are stored computer program instructions executable by the one or more hardware processors, the computer program instructions comprising: first program code to receive updates from a first content source, at least one update identifying first media content, and data identifying a temporal location within the first media content as measured from a start time or another defined time boundary within the first media content; and second program code (i) to receive one or more event requests from a second content source distinct from the first content source, at least one event request seeking an event identifier associated with second content capable of being rendered at the second content source in synchronization with the first media content being rendered on the first content source, and (ii) in response, to return to the second content source the event identifier, the event identifier being an instruction to the second content source to render the second content at a given time. one or more hardware processors (210, 212); computer memory associated with the one or more hardware processors and in which are stored computer program instructions executable by the one or more hardware processors, the computer program instructions comprising: first program code to receive updates from a first content source, at least one update identifying first media content, and data identifying a temporal location within the first media content as measured from a start time or another defined time boundary within the first media content; and second program code (i) to receive one or more event requests from a second content source distinct from the first content source, at least one event request seeking an event identifier associated with second content capable of being rendered at the second content source in synchronization with the first media content being rendered on the first content source, and (ii) in response, to return to the second content source the event identifier, the event identifier being an instruction to the second content source to render the second content at a given time. first program code to receive updates from a first content source, at least one update identifying first media content, and data identifying a temporal location within the first media content as measured from a start time or another defined time boundary within the first media content; and second program code (i) to receive one or more event requests from a second content source distinct from the first content source, at least one event request seeking an event identifier associated with second content capable of being rendered at the second content source in synchronization with the first media content being rendered on the first content source, and (ii) in response, to return to the second content source the event identifier, the event identifier being an instruction to the second content source to render the second content at a given time.
A smoking article comprising: a marking comprising a patterned portion and an adjacent portion, wherein the patterned portion comprises a printed pattern and an embossed pattern aligned with the printed pattern, the printed pattern comprises a first colour and an adjacent second colour, wherein the first colour of the printed pattern is provided on a side of an embossed feature visible from a first angle and the second colour of the printed pattern is provided on a second side of the embossed feature visible from a second angle, wherein the first colour and the adjacent second colour are of sufficiently small widths when viewed from a third angle that the first colour and the second colour blend when viewed from the third angle to produce a third colour, and wherein the adjacent portion of the marking is provided with one of the first, second or third colours. a marking comprising a patterned portion and an adjacent portion, wherein the patterned portion comprises a printed pattern and an embossed pattern aligned with the printed pattern, the printed pattern comprises a first colour and an adjacent second colour, wherein the first colour of the printed pattern is provided on a side of an embossed feature visible from a first angle and the second colour of the printed pattern is provided on a second side of the embossed feature visible from a second angle, wherein the first colour and the adjacent second colour are of sufficiently small widths when viewed from a third angle that the first colour and the second colour blend when viewed from the third angle to produce a third colour, and wherein the adjacent portion of the marking is provided with one of the first, second or third colours.
A method implemented in a User Equipment, in the following also referred to as UE, for reducing signaling overhead, comprising: receiving a first indication from a network node to tell the UE to retain a configuration, which is currently used in RRC_CONNECTED, after the UE enters RRC_IDLE wherein the first indication is included in an RRCConnectionReconfiguration message or an RRCConnectionRelease message; retaining the configuration upon leaving RRC_CONNECTED; and characterized by releasing the configuration when the UE connects to a Radio Access Technology, in the following also referred to as RAT, which is different from a RAT where the first indication was received. receiving a first indication from a network node to tell the UE to retain a configuration, which is currently used in RRC_CONNECTED, after the UE enters RRC_IDLE wherein the first indication is included in an RRCConnectionReconfiguration message or an RRCConnectionRelease message; retaining the configuration upon leaving RRC_CONNECTED; and characterized by releasing the configuration when the UE connects to a Radio Access Technology, in the following also referred to as RAT, which is different from a RAT where the first indication was received.
Letter box assembly comprising a box-like housing, comprising a housing wall (110, 120) which limits a housing opening from at least two sides, wherein the housing is formed in a single piece as a C-shaped part in relation to the side and rear wall, with a partition element, wherein the housing wall (110, 120) has a partition region accommodating the partition element which divides the housing into sections and the partition element has a panel which connects opposite sides of the housing wall (110, 120) to each other, at least partially closing the housing opening, characterised in that the panel has fastening means (310, 320) for attaching a moveable element (340, 350, 360) for closing at least a part of the housing opening.
An aluminosilicate glass, the aluminosilicate glass being free of lithium and comprising 56-72 mol% SiO 2; 5-18 mol% Al 2 O 3; 0-15 mol% B 2 O 3; 0.1-10 mol% P 2 O 5; 3-25 mol% Na 2 O; 0-5 mol% K 2 O; and greater than 0 to 1 mol% MgO, wherein the glass comprises at least one monovalent metal oxide modifier R 2 O, wherein the concentration of P 2 O 5 in mol% ≤ [∑(R 2 O)- Al 2 O 3], where R is at least one of sodium, potassium, rubidium, cesium, copper, thallium, and silver, and wherein ∑R'O ≤ 0.5 times the concentration of of P 2 O 5 in mol% where R' = Mg, Ca, Ba, Sr, and wherein the glass has a liquidus viscosity of at least 10 kPa·s (100 kpoise).
A method for producing a window profile or door profile according to which a decor pattern is generated on at least one surface of the window profile or door profile by means of digital printing from ink drops, wherein the ink drops are printed onto the surface of the window profile or door profile up to a distance from an edge extending in the printing direction of the window profile or door profile in a first direction, in particular perpendicularly, and the ink drops are printed on in a second direction, which is different from the first direction, in particular oblique, in the region of the surface defined by the distance from the edge, characterized in that the distance to the edge is at least as large as the admitted maximum deviation of the actual dimensions of the window profile or door profile from the target dimensions.
A method of evaluating potential for a pressure sore or discomfort of a patient caused by the wearing of an object on the patient, the method comprising: acquiring a first thermal image (20;40) of the patient before wearing the object; wearing the object on the patient for a first predetermined time period; removing the object from the patient and acquiring, after removal of the object, a plurality of further thermal images (16, 24, 26, 28, 30, 44, 46, 48, 50) of the patient at predetermined points in time; comparing each of the plurality of further thermal images (16, 24, 26, 28, 30, 44, 46, 48, 50) with the first thermal image to look for differences between the further thermal images and the first thermal image (20; 40); and evaluating potential for a pressure sore or discomfort of the patient caused by the object on the patient, characterized in that said evaluation is based upon at least one of: the time elapsed between removal of the object from the patient and acquisition of a further thermal image which is substantially identical to the first thermal image, and the size of a number of areas of an epidermis of the patient having a temperature change between acquiring the first thermal image and acquiring a first one of the plurality of further thermal images of the patient. acquiring a first thermal image (20;40) of the patient before wearing the object; wearing the object on the patient for a first predetermined time period; removing the object from the patient and acquiring, after removal of the object, a plurality of further thermal images (16, 24, 26, 28, 30, 44, 46, 48, 50) of the patient at predetermined points in time; comparing each of the plurality of further thermal images (16, 24, 26, 28, 30, 44, 46, 48, 50) with the first thermal image to look for differences between the further thermal images and the first thermal image (20; 40); and evaluating potential for a pressure sore or discomfort of the patient caused by the object on the patient, characterized in that said evaluation is based upon at least one of: the time elapsed between removal of the object from the patient and acquisition of a further thermal image which is substantially identical to the first thermal image, and the size of a number of areas of an epidermis of the patient having a temperature change between acquiring the first thermal image and acquiring a first one of the plurality of further thermal images of the patient. the time elapsed between removal of the object from the patient and acquisition of a further thermal image which is substantially identical to the first thermal image, and the size of a number of areas of an epidermis of the patient having a temperature change between acquiring the first thermal image and acquiring a first one of the plurality of further thermal images of the patient.
A needle for delivering a sensor through an outer skin layer and into a sensor depth, the needle comprising: a wall structure having a central axis, a tip, and at least one cross dimension and defining at least one inner dimension sized to contain the sensor for delivery; at least one cutting edge on the wall structure configured for cutting of the outer skin layer; at least one blunt contour on the wall structure, the blunt contour configured to bluntly dissect tissue as the wall structure advances into the sensor depth, wherein the central axis passes through the blunt contour; wherein the blunt contour, viewed along the central axis of the wall structure, occupies more than 50% of the cross dimension of the wall structure; wherein the blunt contour includes a bend in the wall structure, the bend positioning the tip past the central axis, characterized in that a ratio of a blunt surface area of the wall structure to a cutting surface area of the wall structure viewed along the central axis is no smaller than 0.85 and no greater than 2.74. a wall structure having a central axis, a tip, and at least one cross dimension and defining at least one inner dimension sized to contain the sensor for delivery; at least one cutting edge on the wall structure configured for cutting of the outer skin layer; at least one blunt contour on the wall structure, the blunt contour configured to bluntly dissect tissue as the wall structure advances into the sensor depth, wherein the central axis passes through the blunt contour; wherein the blunt contour, viewed along the central axis of the wall structure, occupies more than 50% of the cross dimension of the wall structure; wherein the blunt contour includes a bend in the wall structure, the bend positioning the tip past the central axis, characterized in that a ratio of a blunt surface area of the wall structure to a cutting surface area of the wall structure viewed along the central axis is no smaller than 0.85 and no greater than 2.74.
A method for coating a component made of a TiAl alloy in order to improve the high - temperature resistance of the component, characterized in that a Pt- and Cr-free protective layer alloy comprising Al 57 to 65 at.% Nb 3 to 6 at. % Mo 0.2 to 2 at.% B 0.05 to 0.2 at. % W 0 to 3 at. % Si 0 to 0.5 at.% C 0 to 0.6 at.% Zr 0 to 6 at. % Y 0 to 0.5 at.% Hf 0 to 0.3 at.% Er 0 to 0.5 at.% Gd 0 to 0.5 at.% and the remainder titanium is deposited on the component by means of physical vapor deposition at a temperature of less than or equal to 600°C, the protective layer alloy having a higher Al content than the TiAl alloy of the component.
Plug-in connector part for plug-connecting to a mating plug-in connector part, having a housing part which has at least one receptacle opening, having at least one electrical contacting element which is disposed in the at least one receptacle opening, and having a caulking element which is disposed on the housing part and in a pre-assembled state of the plug-in connector part is movable along a caulking direction towards the housing part, and by moving in the caulking direction is able to be brought to interact with a caulking portion of the housing part such that the at least one contacting element in an assembled state is caulked to the housing part, characterized in that the housing part, by moving the caulking element in the caulking direction, in the region of the caulking portion is able to be plastically deformed in order for the at least one contacting element to be connected to the housing part.
A composition comprising an antagonist antibody binding to ActRIIB for use in treating a metabolic disorder in a subject, wherein the anti-ActRIIB antibody increases brown adipose tissue without increasing red blood cell levels in said subject and wherein the anti-ActRIIB antibody comprises a heavy chain variable region CDR1 of SEQ ID NO: 9; a heavy chain variable region CDR2 of SEQ ID NO: 23; a heavy chain variable region CDR3 of SEQ ID NO: 37; a light chain variable region CDR1 of SEQ ID NO: 51; a light chain variable region CDR2 of SEQ ID NO: 65; and a light chain variable region CDR3 of SEQ ID NO: 79 wherein the metabolic disorder is selected from the group consisting of obesity, Type 2 Diabetes, Metabolic Syndrome, lipodystrophy, impaired glucose tolerance, elevated plasma insulin concentration, insulin resistance, dyslipidemia, hyperglycemia, hyperlipidemia, hypertension, cardiovascular disease.
A winding machine for winding up a plurality of threads to form bobbins, having a plurality of winding stations (5.1, 5.2, 5.3, 5.4) arranged in a manner distributed along a driven bobbin-winding spindle, and having a traversing device which has a plurality of flyer traversing units (6.1-6.4) assigned to the winding stations (5.1-5.4) and an electric motor, wherein the electric motor and the flyer traversing units (6.1, 6.4) are connected together via a belt drive, the belt drive has an endless toothed belt having a multiplicity of belt teeth characterized in that the belt has a pitch spacing between two adjacent belt teeth in the range of > 4 mm to < 5 mm.
A method of detecting changes in distance between a first wireless device and a second wireless device, the method comprising: determining a variation of a parameter over time, based on measurements of first timing signals transmitted between the first wireless device and the second wireless device, wherein the variation of the parameter depends on a distance between the first wireless device and the second wireless device, and comprises periodic step transitions as a result of relative clock drift between the first wireless device and the second wireless device; based on the determined variation of the parameter, predicting a time at which a periodic step transition is expected to occur; determining a value of the parameter based on measurements of second timing signals, the second timing signals being subsequently transmitted between the first wireless device and the second wireless device close to the predicted time; and responsive to a determination that the determined value of the parameter differs from an expected value of the parameter, determining that the distance between the first wireless device and the second wireless device has changed. determining a variation of a parameter over time, based on measurements of first timing signals transmitted between the first wireless device and the second wireless device, wherein the variation of the parameter depends on a distance between the first wireless device and the second wireless device, and comprises periodic step transitions as a result of relative clock drift between the first wireless device and the second wireless device; based on the determined variation of the parameter, predicting a time at which a periodic step transition is expected to occur; determining a value of the parameter based on measurements of second timing signals, the second timing signals being subsequently transmitted between the first wireless device and the second wireless device close to the predicted time; and responsive to a determination that the determined value of the parameter differs from an expected value of the parameter, determining that the distance between the first wireless device and the second wireless device has changed.
Combustion engine with a fuel system, wherein the fuel system comprises a fuel valve, wherein the fuel valve has a housing, in which a fuel chamber is formed, wherein the fuel system has a fuel pump which conveys fuel out of a fuel tank into the fuel chamber, and wherein the fuel system has a conveying pump (59, 69, 79, 89) for forced conveyance of fuel into the fuel system, characterised in that the conveying pump (59, 69, 79, 89) is arranged in a feed line (50, 72) to the fuel chamber of the fuel valve and conveys fuel into the fuel chamber, the fuel chamber is connected to a pressure relief line, in which a first valve (60, 73) is arranged, the feed line, in which the conveying pump (59, 69, 79, 89) is arranged, lies in the flow path from a pumping chamber of the fuel pump to the fuel chamber, and a pressure regulator is arranged downstream of the fuel pump, and the feed line connects a regulating chamber of the pressure regulator to the fuel chamber.
A thermally responsive switch which is used to cut off AC current flowing through a compressor motor, the thermally responsive switch comprising: a hermetically sealed container including a metal housing and a header plate hermetically secured to an open end of the housing; at least one conductive terminal pin (10A, 10B) inserted through a through hole (4A, 4B) formed through the header plate and hermetically fixed in the through hole (4A, 4B) by an electrically insulating filler; a fixed contact fixed to the terminal pin (10A, 10B) in the container; a thermally responsive plate having one of two ends conductively connected and fixed to an inner surface of the container and formed into a dish shape by drawing so as to reverse a direction of curvature at a predetermined temperature; at least one movable contact secured to the other end of the thermally responsive plate and constituting at least one pair of switching contacts together with the fixed contact, wherein each of the fixed contact and the movable contact comprises a silver-cadmium oxide system contact, and the container is filled with a gas containing helium ranging from 50% to 95% so that an internal pressure of the container ranges from 0.38 atmosphere to 0.68 atmosphere at room temperature. a hermetically sealed container including a metal housing and a header plate hermetically secured to an open end of the housing; at least one conductive terminal pin (10A, 10B) inserted through a through hole (4A, 4B) formed through the header plate and hermetically fixed in the through hole (4A, 4B) by an electrically insulating filler; a fixed contact fixed to the terminal pin (10A, 10B) in the container; a thermally responsive plate having one of two ends conductively connected and fixed to an inner surface of the container and formed into a dish shape by drawing so as to reverse a direction of curvature at a predetermined temperature; at least one movable contact secured to the other end of the thermally responsive plate and constituting at least one pair of switching contacts together with the fixed contact, wherein each of the fixed contact and the movable contact comprises a silver-cadmium oxide system contact, and the container is filled with a gas containing helium ranging from 50% to 95% so that an internal pressure of the container ranges from 0.38 atmosphere to 0.68 atmosphere at room temperature.
A method of equalizing a signal received over a transmission channel defined by BEM coefficients of a basis expansion model of its channel taps, characterized by the step of approximately solving the relation y n = ∑ m = 0 M B m n ⋅ ∑ l = 0 L − 1 b lm x n − l + w n for x[n], n being the index of time, y [ n] being the received signal, x [ n] being the equalized signal, B m [ n] being the m th basis function of the basis expansion model, L being the channel length, M being the model order of the basis expansion model, b lm being the BEM coefficient of the m th basis function of the l th channel tap, and w[n] being optional noise, by approximately solving the matrix representation y = ∑ m = 0 M − 1 P m C m x + w of said relation by an iterative method, P m being a diagonal matrix containing basis function B m [ n], C m being a circulant matrix containing the m th BEM coefficients b lm of all channel taps, and w being optional noise, utilizing a diagonal matrix D m derived from the circulant matrix C m according to the definition C m = F H D m F, F being the matrix of the Discrete Fourier Transform and F H the conjugate transpose thereof. n being the index of time, y [ n] being the received signal, x [ n] being the equalized signal, B m [ n] being the m th basis function of the basis expansion model, L being the channel length, M being the model order of the basis expansion model, b lm being the BEM coefficient of the m th basis function of the l th channel tap, and w[n] being optional noise, P m being a diagonal matrix containing basis function B m [ n], C m being a circulant matrix containing the m th BEM coefficients b lm of all channel taps, and w being optional noise,