mhurhangee/ep-ind-claims huggingface dataset:
A method for a Push-to-X over Cellular (PoC) server that receives a server registration for a called device from a second server, characterized by: receiving a PoC invitation message with PoC preferences from an originating device to initiate a PoC communication session, wherein the PoC preferences indicate preferences of a user associated with the originating device; and sending an invitation message to the second server, if a trigger occurs for the called device and the PoC preferences permit, wherein the trigger occurs when the called device has not been answered to the PoC communication session. receiving a PoC invitation message with PoC preferences from an originating device to initiate a PoC communication session, wherein the PoC preferences indicate preferences of a user associated with the originating device; and sending an invitation message to the second server, if a trigger occurs for the called device and the PoC preferences permit, wherein the trigger occurs when the called device has not been answered to the PoC communication session.
A time of flight imaging system comprising: multiple time of flight cameras (10-1, 10-2) imaging a scene, wherein each of the time of flight cameras (10-1, 10-2) comprises a sensor including a two dimensional array of demodulation pixels and a modulated light source, wherein the pixels of the sensor sample the light from the modulated light source synchronously with the modulation of the modulated light source, characterized in that each camera (10-1, 10-2) operates by subdividing its exposures into several subexposures (SEa-SEe), wherein for each of the subexposures (SEa-SEe) the phase of the illumination by the light source and the sensor is changed and wherein a common phase delay (D1, D2) is added to the light source and the sensor for each of the subexposures in emitted signals (ES1, ES2) for each of the cameras (10-1, 10-2), these phase delays (D1, D2) being different for the different cameras (10-1, 10-2). multiple time of flight cameras (10-1, 10-2) imaging a scene, wherein each of the time of flight cameras (10-1, 10-2) comprises a sensor including a two dimensional array of demodulation pixels and a modulated light source, wherein the pixels of the sensor sample the light from the modulated light source synchronously with the modulation of the modulated light source, characterized in that each camera (10-1, 10-2) operates by subdividing its exposures into several subexposures (SEa-SEe), wherein for each of the subexposures (SEa-SEe) the phase of the illumination by the light source and the sensor is changed and wherein a common phase delay (D1, D2) is added to the light source and the sensor for each of the subexposures in emitted signals (ES1, ES2) for each of the cameras (10-1, 10-2), these phase delays (D1, D2) being different for the different cameras (10-1, 10-2).
A CO2 water heater comprising: a CO2 circulation path configured to allow CO2 to circulate therein and having two CO2 branch passages (14b, 14c); a compressor, a gas cooler and an expansion valve, each of which is provided on the CO2 circulation path; a CO2 reservoir tank for storing CO2 at least in a hot gas state and a first flow regulating valve (34, 35); an air-heat-source heat exchanger (22a, 22b) provided on one of the CO2 branch passages (14b, 14c); a water-heat-source heat exchanger provided on the other one of the CO2 branch passages (14b, 14c); a flow path switching mechanism (48, 50) configured to switch a CO2 flow path to the one or the other one of the CO2 branch passages (14b, 14c); and an air flow forming part for forming an air flow (a) to be introduced to the air-heat-source heat exchanger (22a, 22b), characterized by further comprising a bypass passage connected to the CO2 circulation path and provided so as to bypass the expansion valve, the CO2 reservoir tank and the first flow regulating valve (34, 35) being provided on the bypass passage, the CO2 branch passages (14b, 14c) being branched in a parallel manner between the compressor and a connecting portion of the bypass passage on a downstream side of the expansion valve. a CO2 circulation path configured to allow CO2 to circulate therein and having two CO2 branch passages (14b, 14c); a compressor, a gas cooler and an expansion valve, each of which is provided on the CO2 circulation path; a CO2 reservoir tank for storing CO2 at least in a hot gas state and a first flow regulating valve (34, 35); an air-heat-source heat exchanger (22a, 22b) provided on one of the CO2 branch passages (14b, 14c); a water-heat-source heat exchanger provided on the other one of the CO2 branch passages (14b, 14c); a flow path switching mechanism (48, 50) configured to switch a CO2 flow path to the one or the other one of the CO2 branch passages (14b, 14c); and an air flow forming part for forming an air flow (a) to be introduced to the air-heat-source heat exchanger (22a, 22b), characterized by further comprising a bypass passage connected to the CO2 circulation path and provided so as to bypass the expansion valve, the CO2 reservoir tank and the first flow regulating valve (34, 35) being provided on the bypass passage, the CO2 branch passages (14b, 14c) being branched in a parallel manner between the compressor and a connecting portion of the bypass passage on a downstream side of the expansion valve.
A content transmission apparatus comprising: a hold block configured to hold high-resolution video content; a reception block configured to receive image frame information transmitted from a content reproduction apparatus; a computation block configured to compute a clipping range on the basis of said received image frame information; a clip block configured to clip said computed clipping range from said held high-resolution video content; and a transmission block configured to transmit given-image-frame content comprising a clipping result to said content reproduction apparatus, wherein said computation block is configured to compute a clipping range for each high-resolution content frame on the basis of said image frame information, and wherein said clip block is configured to clip, from each high-resolution content frame of said held high-resolution video content, said clipping range computed for each high-resolution content frame, characterized in that said image frame information includes an initial position of said clipping range, a movement amount per unit time and a zoom-in/zoom-out amount per unit time of said clipping range. a hold block configured to hold high-resolution video content; a reception block configured to receive image frame information transmitted from a content reproduction apparatus; a computation block configured to compute a clipping range on the basis of said received image frame information; a clip block configured to clip said computed clipping range from said held high-resolution video content; and a transmission block configured to transmit given-image-frame content comprising a clipping result to said content reproduction apparatus, wherein said computation block is configured to compute a clipping range for each high-resolution content frame on the basis of said image frame information, and wherein said clip block is configured to clip, from each high-resolution content frame of said held high-resolution video content, said clipping range computed for each high-resolution content frame, characterized in that said image frame information includes an initial position of said clipping range, a movement amount per unit time and a zoom-in/zoom-out amount per unit time of said clipping range.
Double shut-off valve for gaseous or liquid substances containing a housing, provided with an intermediate chamber (1.3; 1.4) between inlet- and outlet spaces 1.1 and 1.2 respectively) of the housing, which intermediate chamber is provided with two co-axial valve seats 1.31 and 1.41 respectively) being spaced a part from each other, the valve seat (1.41) of the inlet space (1.1) having a greater inside diameter than the valve seat (1.31) of the outlet space (1.2), against which valve seats in the rest and closing position of the double shut-off valve the valve plates (3.1a and 3.1b, respectively) of actuator members (3a and 3b, respectively) abut sealingly, which actuator members are spring loaded in the direction of the valve seats and can be opened and closed separately and are adjustable in opposite directions into their closing positions, on the one hand, and, respectively, in opposite directions into their open positions, on the other hand, characterized in that (a) the intermediate chamber is positioned between the two valve seats (1.31; 1.41) and is devided into two sections axially joined to each other, and that the inside diameter of the chamber section (1.4) facing the inlet space (1.1) is greater than the inside diameter of the chamber section (1.3) facing the outlet space (1.2), (b) the actuator members in the form of pot pistons (3a and 3b, respectively) are sealingly guided within cylinders (2.2a and 2.2b, respectively), the bottoms (3.1a; 3.1b) of which at their outer sites constitute the valve plates coacting with the valve seats (1.31 and 1.41, respectively), and in that (c) the bottom of the actuator member associated to the outlet space (1.2) is provided with at least one pressure compensation bore (3.2b). (a) the intermediate chamber is positioned between the two valve seats (1.31; 1.41) and is devided into two sections axially joined to each other, and that the inside diameter of the chamber section (1.4) facing the inlet space (1.1) is greater than the inside diameter of the chamber section (1.3) facing the outlet space (1.2), (b) the actuator members in the form of pot pistons (3a and 3b, respectively) are sealingly guided within cylinders (2.2a and 2.2b, respectively), the bottoms (3.1a; 3.1b) of which at their outer sites constitute the valve plates coacting with the valve seats (1.31 and 1.41, respectively), and in that (c) the bottom of the actuator member associated to the outlet space (1.2) is provided with at least one pressure compensation bore (3.2b).
A swivel actuator, the swivel actuator comprising: a driving motor; a linear screw shaft rotating in conjunction with rotational force of the driving motor; a nut member reciprocating to a lengthwise direction of the linear screw shaft in response to the rotation of the linear screw shaft; a lever member, one end of which being rotatably coupled to the nut member and the other end being connectable to a swivelable counterpart; said nut member including a lug unit protrusively formed on the nut member, and a linear screw shaft coupling hole formed with a female screw unit gear-coupled to the linear screw shaft, characterized in that the swivel actuator further comprises an elastic member arranged at a coupled position between the nut member and the lever member to maintain a coupling between the nut member and the lever member by applying elastic restoring force to the lever member; and in that the elastic member includes first and second elastic portions protrusively and oppositely formed on the lug unit in the lengthwise direction of the linear screw shaft. a driving motor; a linear screw shaft rotating in conjunction with rotational force of the driving motor; a nut member reciprocating to a lengthwise direction of the linear screw shaft in response to the rotation of the linear screw shaft; a lever member, one end of which being rotatably coupled to the nut member and the other end being connectable to a swivelable counterpart; said nut member including a lug unit protrusively formed on the nut member, and a linear screw shaft coupling hole formed with a female screw unit gear-coupled to the linear screw shaft, characterized in that the swivel actuator further comprises an elastic member arranged at a coupled position between the nut member and the lever member to maintain a coupling between the nut member and the lever member by applying elastic restoring force to the lever member; and in that the elastic member includes first and second elastic portions protrusively and oppositely formed on the lug unit in the lengthwise direction of the linear screw shaft.
A handheld surgical system comprising: an instrument comprising: a housing; and a motor positioned within the housing; a depth measurement attachment that is removably coupled to the instrument, the depth measurement attachment comprising: a first sensor configured to provide a displacement signal associated with a displacement of a drill bit during a drilling process; a second sensor configured to provide a vibration signal associated with a vibration of the motor during the drilling process; and a controller configured to: receive the vibration signal and the displacement signal; determine a characteristic of the motor based on the vibration signal; and determine a breakthrough event based on the characteristic of the motor and the displacement signal. an instrument comprising: a housing; and a motor positioned within the housing; a housing; and a motor positioned within the housing; a depth measurement attachment that is removably coupled to the instrument, the depth measurement attachment comprising: a first sensor configured to provide a displacement signal associated with a displacement of a drill bit during a drilling process; a second sensor configured to provide a vibration signal associated with a vibration of the motor during the drilling process; and a controller configured to: receive the vibration signal and the displacement signal; determine a characteristic of the motor based on the vibration signal; and determine a breakthrough event based on the characteristic of the motor and the displacement signal. a first sensor configured to provide a displacement signal associated with a displacement of a drill bit during a drilling process; a second sensor configured to provide a vibration signal associated with a vibration of the motor during the drilling process; and a controller configured to: receive the vibration signal and the displacement signal; determine a characteristic of the motor based on the vibration signal; and determine a breakthrough event based on the characteristic of the motor and the displacement signal. receive the vibration signal and the displacement signal; determine a characteristic of the motor based on the vibration signal; and determine a breakthrough event based on the characteristic of the motor and the displacement signal.
Drill feed unit, having - a drill receptacle for fastening a drill to the drill feed unit, and having a - feeding device for mechanised displacement of the drill receptacle relative to a housing of the drill feed unit in an axial direction, wherein - the drill receptacle comprises an interchangeable chuck for detachable attachment of the drill, wherein - the drill receptacle is arranged at least in part in a housing section of the housing, characterised in that - the housing section is detachably connected to an upper housing, wherein the housing section can be detached from the upper housing in order to replace the drill. - a drill receptacle for fastening a drill to the drill feed unit, and having a - feeding device for mechanised displacement of the drill receptacle relative to a housing of the drill feed unit in an axial direction, wherein - the drill receptacle comprises an interchangeable chuck for detachable attachment of the drill, wherein - the drill receptacle is arranged at least in part in a housing section of the housing, characterised in that - the housing section is detachably connected to an upper housing,
Method to obtain an extract from white grape by-products comprising: e) preparing a mixture comprising a white grape marc as a white grape by-product and sand as dispersant, f) adding a solvent wherein the solvent is selected independently from the group consisting of water, alkyl alcohol, glycols, or mixtures thereof, g) eluting, and h) collecting the eluates, wherein the weight ratio of the white grape marc and the dispersant is between 1:1 and 1:3. e) preparing a mixture comprising a white grape marc as a white grape by-product and sand as dispersant, f) adding a solvent wherein the solvent is selected independently from the group consisting of water, alkyl alcohol, glycols, or mixtures thereof, g) eluting, and h) collecting the eluates,
A voltage generating device (210, 310, 410), comprising: a first switch (211, 311, 411), having a first terminal configured to receive a first voltage, wherein a control terminal of the first switch (211, 311, 411) is configured to receive a second voltage; and a second switch (212, 312, 412), having a first terminal configured to receive the second voltage, wherein a control terminal of the second switch (212, 312, 412) is configured to receive the first voltage, a second terminal of the second switch (212, 312, 412) and a second terminal of the first switch (211, 311, 411) are coupled to an output node (Nout2, Nout3, Nout4), and the output node (Nout2, Nout3, Nout4) outputs an output voltage (Vout2, Vout3, Vout4) related to at least one of the first voltage and the second voltage. a first switch (211, 311, 411), having a first terminal configured to receive a first voltage, wherein a control terminal of the first switch (211, 311, 411) is configured to receive a second voltage; and a second switch (212, 312, 412), having a first terminal configured to receive the second voltage, wherein a control terminal of the second switch (212, 312, 412) is configured to receive the first voltage, a second terminal of the second switch (212, 312, 412) and a second terminal of the first switch (211, 311, 411) are coupled to an output node (Nout2, Nout3, Nout4), and the output node (Nout2, Nout3, Nout4) outputs an output voltage (Vout2, Vout3, Vout4) related to at least one of the first voltage and the second voltage.
A free-solution analytical method comprising: interrogating an interaction product of a first non-immobilized analyte and a second non-immobilized analyte, within a fluid sample in a refractive index sensor, with light, wherein at least one of the analytes was added to the fluid sample in a concentration of less than about 1.0 × 10 -6 M; and detecting the light after interrogation with the fluid sample, characterized in that the detected light is not backscattered; and in that the detecting is performed by an apparatus selected from a RI detector based on the angle of deviation method of measurement, a RI detector based on the Fresnel method of RI measurement, a Christiansen effect detector, an interferometer detector, and a differential refractometer detector. interrogating an interaction product of a first non-immobilized analyte and a second non-immobilized analyte, within a fluid sample in a refractive index sensor, with light, wherein at least one of the analytes was added to the fluid sample in a concentration of less than about 1.0 × 10 -6 M; and detecting the light after interrogation with the fluid sample, characterized in that the detected light is not backscattered; and in that the detecting is performed by an apparatus selected from a RI detector based on the angle of deviation method of measurement, a RI detector based on the Fresnel method of RI measurement, a Christiansen effect detector, an interferometer detector, and a differential refractometer detector.
Sash post for the center closing area of a sash which can slide in a sliding frame device relative to a countersash, preferably a sliding door or sliding window sash, wherein the sash post comprises a center closing seal, a center closing seal counter element, and at least one receiving region (105, 106) for receiving at least one flat element bracket (120, 121), wherein the entire sash post is made of a thermally insulating material, preferably plastic; wherein, the sash post as such forms an outer shell of the sash in the installed state; and wherein no load-bearing metal parts are disposed in a thermal transmission path from a weather side along the sash post into the center closing area in the installed state.
An image heating apparatus comprising: a first rotatable member and a second rotatable member which are configured to form a nip in which a toner image is fixed on a recording material; an air blowing mechanism; a duct configured to guide air from said air blowing mechanism toward an end portion of said first rotatable member with respect to a longitudinal direction of said first rotatable member; and an opening and closing mechanism configured to open and close an air blowing port of said duct, characterized in that said opening and closing mechanism includes a plurality of shutter members (36L, 37L) configured to close said air blowing port in cooperation with each other. a first rotatable member and a second rotatable member which are configured to form a nip in which a toner image is fixed on a recording material; an air blowing mechanism; a duct configured to guide air from said air blowing mechanism toward an end portion of said first rotatable member with respect to a longitudinal direction of said first rotatable member; and an opening and closing mechanism configured to open and close an air blowing port of said duct, characterized in that said opening and closing mechanism includes a plurality of shutter members (36L, 37L) configured to close said air blowing port in cooperation with each other.
A Rogowski coil comprising: a magnetic core having a relative permeability greater than one and less than twenty and including a core body, the core body encircling a conductor configured to carry a current at a frequency; and a winding including a conductive wire disposed generally helically about the core body thereby forming a coil configured to generate an output whose amplitude is proportional to the frequency according to: N × μ r × μ 0 × A / l × 2 × π × f × I, where N is a number of turns of the coil, μ r is the relative permeability of the magnetic core, μ 0 is a permeability of free space, A is a cross sectional area of the core body, l is an average circumference of the core body, and f is the frequency of the current / in the conductor; wherein the core body is a magnetic core body which, prior to magnetic saturation, has a transfer impedance of between 1mV/A and 20mV/A at 60 Hz to cause the Rogowski coil to produce a detectable voltage. a magnetic core having a relative permeability greater than one and less than twenty and including a core body, the core body encircling a conductor configured to carry a current at a frequency; and a winding including a conductive wire disposed generally helically about the core body thereby forming a coil configured to generate an output whose amplitude is proportional to the frequency according to: N × μ r × μ 0 × A / l × 2 × π × f × I, where N is a number of turns of the coil, μ r is the relative permeability of the magnetic core, μ 0 is a permeability of free space, A is a cross sectional area of the core body, l is an average circumference of the core body, and f is the frequency of the current / in the conductor; wherein the core body is a magnetic core body which, prior to magnetic saturation, has a transfer impedance of between 1mV/A and 20mV/A at 60 Hz to cause the Rogowski coil to produce a detectable voltage.