mhurhangee/ep-ind-claims huggingface dataset:
An indoor unit of an air-conditioning apparatus comprising: a heat exchanger configured to condition air by carrying out heat exchange between refrigerant and indoor air; and a drain pan disposed below a lower end of the heat exchanger to collect dew condensation water, wherein the drain pan includes at a side portion thereof: a side dew receiving portion configured to receive dew condensation water; and characterized in that: the drain pan further includes at the side portion thereof a recessed portion disposed below the side dew receiving portion, the recessed portion being recessed toward an other side portion opposite to the side portion, and wherein a side face of the drain pan is provided with a heat insulating sheet covering an entire opening of the recessed portion. a heat exchanger configured to condition air by carrying out heat exchange between refrigerant and indoor air; and a drain pan disposed below a lower end of the heat exchanger to collect dew condensation water, wherein the drain pan includes at a side portion thereof: a side dew receiving portion configured to receive dew condensation water; and characterized in that: the drain pan further includes at the side portion thereof a recessed portion disposed below the side dew receiving portion, the recessed portion being recessed toward an other side portion opposite to the side portion, and wherein a side face of the drain pan is provided with a heat insulating sheet covering an entire opening of the recessed portion. the drain pan further includes at the side portion thereof a recessed portion disposed below the side dew receiving portion, the recessed portion being recessed toward an other side portion opposite to the side portion, and wherein a side face of the drain pan is provided with a heat insulating sheet covering an entire opening of the recessed portion.
A generation of a total data set of at least one section of an object, such as a jaw region, to determine at least one characteristic feature, such as shape and position, by combining individual data sets, which are determined by means of an optical sensor as a first sensor moving relative to the object, and an image processing system, whereby individual data sets of consecutive images of the object contain redundant data, which are matched to combine the individual data sets, characterized in that a 3D camera is used as the optical sensor and that either the number of individual data sets acquired per time interval are varied in dependence on the relative movement between the optical sensor and the object, wherein for the acquisition of the relative movement the first sensor comprises a second sensor from the group acceleration sensor, rotation sensor, inertial platform, or the number of individual data sets acquired per time interval is controlled in dependence on the number of redundant data of consecutive data sets.
A pressure sensor module comprising: a pressure sensor which has a diaphragm portion where a portion of a semiconductor substrate is sheeted, and which has an electrode arranged in the vicinity of the diaphragm portion; and a laminar substrate which incorporates the pressure sensor, and which has a space portion that exposes at least one face of the diaphragm portion and a wiring portion that is electrically connected to the electrode, characterized in that: the pressure sensor is incorporated in the laminar substrate so that there is no gap between the pressure sensor and the laminar substrate. a pressure sensor which has a diaphragm portion where a portion of a semiconductor substrate is sheeted, and which has an electrode arranged in the vicinity of the diaphragm portion; and a laminar substrate which incorporates the pressure sensor, and which has a space portion that exposes at least one face of the diaphragm portion and a wiring portion that is electrically connected to the electrode, characterized in that: the pressure sensor is incorporated in the laminar substrate so that there is no gap between the pressure sensor and the laminar substrate. the pressure sensor is incorporated in the laminar substrate so that there is no gap between the pressure sensor and the laminar substrate.
A curved display panel comprising an array substrate, a plurality of opening areas arranged in an array, and a counter substrate arranged opposite to the array substrate, the opening areas being functional regions of the pixels of the curved display panel which are used for displaying, wherein the counter substrate comprises: a first base substrate which is curved; a strip-shaped black matrix formed as black matrix strips and positioned on the first base substrate and extending along a direction substantially parallel to a curved edge of the first base substrate; and a blocking portion positioned on the first base substrate, wherein an orthographic projection of the blocking portion on the first base substrate is within an orthographic projection region of the opening area on the first base substrate to prevent air bubbles from moving in a liquid crystal layer of the curved display panel, the liquid crystal layer being between the array substrate and the counter substrate, wherein the blocking portion comprises a recess positioned on a side, of a black matrix strip along an extension direction of the black matrix strip. a first base substrate which is curved; a strip-shaped black matrix formed as black matrix strips and positioned on the first base substrate and extending along a direction substantially parallel to a curved edge of the first base substrate; and a blocking portion positioned on the first base substrate, wherein an orthographic projection of the blocking portion on the first base substrate is within an orthographic projection region of the opening area on the first base substrate to prevent air bubbles from moving in a liquid crystal layer of the curved display panel, the liquid crystal layer being between the array substrate and the counter substrate, wherein the blocking portion comprises a recess positioned on a side, of a black matrix strip along an extension direction of the black matrix strip.
A connection assembly being a snap fastener assembly or a container assembly, the connection assembly comprising a first component and a second component which can be joined together along an axis of relative movement, starting from a separated disassembled state, into an interconnected assembled state, and which can be transferred back into the disassembled state, the first component being provided with at least one latching element which surrounds the axis of relative movement in an annular or segment-shaped manner, and the second component being provided with at least one latching element receptacle which surrounds the axis of relative movement in an annular or segment-shaped manner and cooperates with at least two latching portions (36, 38) of the at least one latching element in the assembled state, the latching portions being offset relative to each other when viewed in the circumferential direction, wherein the latching portions (36, 38) of the at least one latching element are each movable along a movement path starting from a non-deformed rest state, which movement path has at least a component parallel to the axis of relative movement, a first portion of the movement path pointing in a disassembly direction with respect to the rest state, and a second portion of the movement path pointing in an assembly direction opposite the disassembly direction with respect to the rest state, wherein in the course of disassembling the at least one latching element rests against at least one stop, characterized in that, when in its rest state, the at least one latching element extends along a plane that is oblique or perpendicular to the axis of relative movement when viewed in a cross-sectional plane parallel to the axis of relative movement, and in that the first portion of the movement path being limited by the at least one stop against which the at least one latching element rests in the course of disassembling the components (12, 14), wherein the latching portions (36, 38) are spaced apart from the stop when the latching element is its rest state.
Table saw, preferably a circular table saw, with a support structure which can be placed on a support and on the upper side of which a workpiece support plate is provided, and with a saw blade which projects upwards over the workpiece support plate, characterised in that the workpiece support plate is mounted in a sliding manner relative to the support structure and to the saw blade in the sawing direction (y) and in that it has a splinter protection element which is arranged on a side of the workpiece support plate facing the saw blade and which is guided past the saw blade when the workpiece support plate is slid, wherein a groove is provided on the side of the workpiece support plate facing the saw blade, which groove receives a portion of the splinter protection element.
A case hardened profiled element suitable for repeated deformation and relaxation, which profiled element is made from a sheet of an AISI stainless steel selected from the list consisting of 430, 409, 410, 439, 434, and 444 or a stainless steel selected from the list consisting of 1.4600, 1.4512, 1.4003, 1.4000, 1.4589, 1.4016, 1.4511, 1.4520, 1.4510, 1.4509, 1.4607, 1.4113, 1.4513, 1.4521, 1.4724, 1.4736, 1.4742, and 1.4762 according to the DIN 17007-standard, which profiled element has a material thickness in the range of 0.2 mm to 3 mm and a nitrogen martensitic case with a case depth in the range of 10 μm to 50 μm, which nitrogen martensitic case has a nitrogen content in the range of 0.05 % to 0.5 % and does not comprise more than 5% retained austenite, and which profiled element has a surface hardness in the range of 620 to 750 HV0.05.
A radiation imaging apparatus for detecting a radiation, comprising: a radiation detection unit (101, 201) for converting a received radiation into image data; a storage unit (102, 203) for storing a plurality of first correction data groups respectively corresponding to a plurality of imaging time groups of the radiation detection unit; a correction unit (104, 205) for correcting the image data based on the correction data; and a control unit (107, 208) for controlling the radiation detection unit and the correction unit, characterized in that the control unit (107, 208) reads first correction data corresponding to the imaging time of the radiation detection unit (101, 201) from the storage unit (102, 203), and controls the correction unit (104, 205) so as to correct the image data based on the first correction data and generate first image data, wherein the control unit (107, 208) controls the radiation detection unit (101, 201) to obtain second correction data to perform a second offset correction of the image data from the radiation detecting unit (101, 201), after having obtained the image data in parallel with performing an offset correction of the correction unit based on the first correction data. a radiation detection unit (101, 201) for converting a received radiation into image data; a storage unit (102, 203) for storing a plurality of first correction data groups respectively corresponding to a plurality of imaging time groups of the radiation detection unit; a correction unit (104, 205) for correcting the image data based on the correction data; and a control unit (107, 208) for controlling the radiation detection unit and the correction unit, characterized in that the control unit (107, 208) reads first correction data corresponding to the imaging time of the radiation detection unit (101, 201) from the storage unit (102, 203), and controls the correction unit (104, 205) so as to correct the image data based on the first correction data and generate first image data, wherein the control unit (107, 208) controls the radiation detection unit (101, 201) to obtain second correction data to perform a second offset correction of the image data from the radiation detecting unit (101, 201), after having obtained the image data in parallel with performing an offset correction of the correction unit based on the first correction data.
A glass-plate working apparatus comprising: at least one first working head means for effecting grinding or polishing, or both grinding and polishing, of a first region in an end face of a glass plate; a first moving means for moving said at least one first working head means along the first region in the end face of the glass plate; at least one second working head means for effecting grinding or polishing, or both grinding and polishing, of a second region (R2, R3) in the end face of the glass plate; and a second moving means for moving said at least one second working head means along the second region (R2, R3) in the end face of the glass plate, characterized in that said first moving means is adapted to move said at least one first working head means in a first direction among the X directions (X1, X2) along the first region, and said second moving means is adapted to move said at least one second working head means in a second direction among the X directions (X1, X2) along the second region (R2, R3) such that said at least one first working head means and said at least one second working head means approach each other or move away from each other. at least one first working head means for effecting grinding or polishing, or both grinding and polishing, of a first region in an end face of a glass plate; a first moving means for moving said at least one first working head means along the first region in the end face of the glass plate; at least one second working head means for effecting grinding or polishing, or both grinding and polishing, of a second region (R2, R3) in the end face of the glass plate; and a second moving means for moving said at least one second working head means along the second region (R2, R3) in the end face of the glass plate, characterized in that said first moving means is adapted to move said at least one first working head means in a first direction among the X directions (X1, X2) along the first region, and said second moving means is adapted to move said at least one second working head means in a second direction among the X directions (X1, X2) along the second region (R2, R3) such that said at least one first working head means and said at least one second working head means approach each other or move away from each other.
A Method for controlling power consumption of a telephone, wherein a power saving mode is automatically turned on or off for the telephone, depending on at least one predetermined period of time, in which the telephone is expected not to be used, wherein the telephone is formed as an IP telephone (10; 310; 410) in a LAN network (50; 350; 450), wherein first data is being generated, by means of which the predetermined period of time is determined based on a statistical evaluation (72, 74) of a previous usage behavior of a user of the IP telephone, depending on: - control inputs, in particular via key stroke, of the user at the IP telephone (10; 310; 410) and/or - incoming data for the IP telephone (10; 310; 410) and/or - activities of a terminal connected to the IP telephone, wherein the first data is used to automatically determine, when the IP telephone (10; 310; 410) is expected not to be used and the power saving mode is automatically turned on for the IP telephone (10; 310; 410) during the determined period of time, wherein second data, indicating when the IP telephone is expected not be used, is being predetermined, wherein the IP telephone is automatically switched to a power saving mode and/or the power saving mode is switched off, depending on the predetermined data, and wherein a user may elect to use the IP telephone (310; 410) instead of a terminal (380; 480), wherein automatic detection of the use of the terminal (380; 480) is performed, and wherein the power saving mode is automatically switched on and/or switched off for the IP telephone (310; 410) depending on the detected use of the terminal (380; 480), wherein the terminal (380; 480) establishes a connection with a telecommunication system (352; 452) at which the IP telephone (310; 410) is also operated, and wherein the terminal (380; 480) registers with the telecommunication system (352; 452). - control inputs, in particular via key stroke, of the user at the IP telephone (10; 310; 410) and/or - incoming data for the IP telephone (10; 310; 410) and/or - activities of a terminal connected to the IP telephone,
A method performed by an apparatus for wireless communication, comprising: receiving (1405; 1505) a first synchronization signal (305; 410; 510) comprising a plurality of sequence repetitions (310; 420); identifying (505; 1510) a plurality of overlapping accumulation time intervals; performing a cumulative correlation for the first synchronization signal for each overlapping accumulation time interval of the plurality, wherein each of the cumulative correlations comprises a plurality of coherent correlations associated with the plurality of sequence repetitions, the plurality of coherent correlations corresponding to a set of consecutive non-overlapping correlation time intervals; identifying (1410;1515) a set of candidates for a timing structure boundary based on the plurality of sequence repetitions and on the cumulative correlations; and determining (525; 1415; 1520) the timing structure boundary from the set of candidates based on a second synchronization signal (415; 520). receiving (1405; 1505) a first synchronization signal (305; 410; 510) comprising a plurality of sequence repetitions (310; 420); identifying (505; 1510) a plurality of overlapping accumulation time intervals; performing a cumulative correlation for the first synchronization signal for each overlapping accumulation time interval of the plurality, wherein each of the cumulative correlations comprises a plurality of coherent correlations associated with the plurality of sequence repetitions, the plurality of coherent correlations corresponding to a set of consecutive non-overlapping correlation time intervals; identifying (1410;1515) a set of candidates for a timing structure boundary based on the plurality of sequence repetitions and on the cumulative correlations; and determining (525; 1415; 1520) the timing structure boundary from the set of candidates based on a second synchronization signal (415; 520).
A method for forming a high temperature coating (38, 110) over a turbomachine component having a silicon-ceramic component body (46, 118), the method comprising: removing a surface oxide layer from the silicon-ceramic component body to expose a treated surface thereof and the removing comprises contacting the surface oxide layer with a chemical etchant having a chemistry selective to silica over the silicon-ceramic component body; depositing a first layer of a coating precursor material over the treated surface, the coating precursor material having a solids content composed predominately of at least one rare earth silicate by weight percentage; and heat treating the first layer of the coating precursor material to sinter the solids content and form a first sintered coating layer (50(a)) bonded to the treated surface of the silicon-ceramic component body, wherein the steps of removing, depositing, and heat treating are performed such that the first sintered coating layer (50(a)) is bonded directly to and intimately contacts the treated surface of the silicon-ceramic component body (46, 118). removing a surface oxide layer from the silicon-ceramic component body to expose a treated surface thereof and the removing comprises contacting the surface oxide layer with a chemical etchant having a chemistry selective to silica over the silicon-ceramic component body; depositing a first layer of a coating precursor material over the treated surface, the coating precursor material having a solids content composed predominately of at least one rare earth silicate by weight percentage; and heat treating the first layer of the coating precursor material to sinter the solids content and form a first sintered coating layer (50(a)) bonded to the treated surface of the silicon-ceramic component body, wherein the steps of removing, depositing, and heat treating are performed such that the first sintered coating layer (50(a)) is bonded directly to and intimately contacts the treated surface of the silicon-ceramic component body (46, 118).
A substrate-selecting equipment for selecting substrates, to be used for the production of photomasks having a pattern area, from among a group of substrates with a photosensitive material layer thereon, wherein the substrate-selecting equipment comprises: - a pinhole defect-registering part adapted to register in a database the results of the inspection at pinhole defects of blanks, said blanks being said substrates without said photosensitive material layer thereon, - a foreign substance defect-registering part adapted to register in said database the results of the inspection of foreign substances of said substrates with said photosensitive material layer thereon, - a photosensitive material layer lot check result-registering part adapted to register in said database the results of a lot check of photosensitive material layers, - a selection standard-registering part adapted to register in said database a quality standard which is the standard of selection of substrates, and - a substrate-selection part adapted to select substrates to be used for the production of photomasks from among said group of substrates with a photosensitive material layer thereon, on the basis of the results of the inspection of pinhole defects, the results of the inspection of foreign substances, the results of the lot check of photosensitive material layers, and the quality standard, all registered in said database, characterized in that the substrate-selecting equipment further comprises an in-pattern-area-existing-defect-extracting-part adapted to extract defects existing in the area of said substrates corresponding to said pattern area, on the basis of the results of the inspection of pinhole defects, the results of the inspection of foreign substances and the results of the lot check of photosensitive material layers, all registered in said database. - a pinhole defect-registering part adapted to register in a database the results of the inspection at pinhole defects of blanks, said blanks being said substrates without said photosensitive material layer thereon, - a foreign substance defect-registering part adapted to register in said database the results of the inspection of foreign substances of said substrates with said photosensitive material layer thereon, - a photosensitive material layer lot check result-registering part adapted to register in said database the results of a lot check of photosensitive material layers, - a selection standard-registering part adapted to register in said database a quality standard which is the standard of selection of substrates, and - a substrate-selection part adapted to select substrates to be used for the production of photomasks from among said group of substrates with a photosensitive material layer thereon, on the basis of the results of the inspection of pinhole defects, the results of the inspection of foreign substances, the results of the lot check of photosensitive material layers, and the quality standard, all registered in said database,