mhurhangee/ep-ind-claims huggingface dataset:
An endosseous dental implant for insertion into the jawbone of a patient and deterring bone loss at the site of the implant, comprising: a longitudinally extending shaft having a longitudinal axis extending from a proximal abutment end to a distal end, and having an external circumference perpendicular to the longitudinal axis associated therewith; a first longitudinally extending externally threaded region extending along the longitudinal axis and extending over only a circumferential portion of the external circumference of the shaft; a first longitudinally extending unthreaded region extending over only a circumferential portion of the external circumference of the shaft at a location longitudinally adjacent to the first longitudinally extending externally threaded region; and an internal passage extending along the longitudinal axis of the shaft from the proximal abutment end of the shaft, the internal passage comprising first and second frusto-conical regions (112, 114) each extending over only a circumferential portion of the internal passage proximate the abutment end of the shaft to provide frusto-conical regions at opposing circumferential locations of the internal passage, and a non-frusto-conical region disposed between the first and second frusto-conical regions, the non frusto-conical region includes a planar surface, wherein a boundary between the frusto-conical connection regions and the non-frusto-conical connection region is in the form of a hyperbola. a longitudinally extending shaft having a longitudinal axis extending from a proximal abutment end to a distal end, and having an external circumference perpendicular to the longitudinal axis associated therewith; a first longitudinally extending externally threaded region extending along the longitudinal axis and extending over only a circumferential portion of the external circumference of the shaft; a first longitudinally extending unthreaded region extending over only a circumferential portion of the external circumference of the shaft at a location longitudinally adjacent to the first longitudinally extending externally threaded region; and an internal passage extending along the longitudinal axis of the shaft from the proximal abutment end of the shaft, the internal passage comprising first and second frusto-conical regions (112, 114) each extending over only a circumferential portion of the internal passage proximate the abutment end of the shaft to provide frusto-conical regions at opposing circumferential locations of the internal passage, and a non-frusto-conical region disposed between the first and second frusto-conical regions, the non frusto-conical region includes a planar surface, wherein a boundary between the frusto-conical connection regions and the non-frusto-conical connection region is in the form of a hyperbola.
Use for extracting molecular iodine from a material comprising a first material fitting the following formula: M x [M' 4] wherein: - M and M' are selected independently of each other from Fe and Ni; - x is a positive integer; and - L is an organic ligand selected from heterocyclic, optionally aromatic compounds comprising at least one nitrogen atom, and wherein the material further comprises a second material which is a support of said first material. - M and M' are selected independently of each other from Fe and Ni; - x is a positive integer; and - L is an organic ligand selected from heterocyclic, optionally aromatic compounds comprising at least one nitrogen atom, and
Irradiation apparatus for UV radiation treatment of in particular web-shaped objects, having a UV lamp configured as a gas discharge tube, a reflector that sectionally surrounds the UV lamp for reflecting radiation onto the object to be irradiated, and a sensor device for capturing radiation, characterized in that the sensor device has at least one radiation sensor which is integrated in the reflector and aligned with the UV lamp.
A catheter, comprising: a catheter shaft having a proximal end portion and a distal end portion, the catheter shaft defining an irrigation lumen; a balloon including a proximal section and a distal section, wherein the proximal section of the balloon is coupled to the distal end portion of the catheter shaft, and wherein the balloon defines a volume in fluid communication with the irrigation lumen, and further wherein the balloon defines a plurality of irrigation orifices in fluid communication with the volume; an ablation electrode disposed along at least the distal section of the balloon; wherein the ablation electrode includes a continuous conductive outer layer on an outer surface of the distal section of the balloon; and a plurality of sensing electrodes disposed along at least the distal section of the balloon, wherein each sensing electrode is electrically isolated from the ablation electrode, and wherein each sensing electrode is bounded by the ablation electrode, wherein, independent of an orientation of the distal section of the balloon to tissue, any line of contact between the distal section of the balloon and tissue is substantially continuously spanned by the ablation electrode, one or more of the sensing electrodes, or a combination thereof. a catheter shaft having a proximal end portion and a distal end portion, the catheter shaft defining an irrigation lumen; a balloon including a proximal section and a distal section, wherein the proximal section of the balloon is coupled to the distal end portion of the catheter shaft, and wherein the balloon defines a volume in fluid communication with the irrigation lumen, and further wherein the balloon defines a plurality of irrigation orifices in fluid communication with the volume; an ablation electrode disposed along at least the distal section of the balloon; wherein the ablation electrode includes a continuous conductive outer layer on an outer surface of the distal section of the balloon; and a plurality of sensing electrodes disposed along at least the distal section of the balloon, wherein each sensing electrode is electrically isolated from the ablation electrode, and wherein each sensing electrode is bounded by the ablation electrode, wherein, independent of an orientation of the distal section of the balloon to tissue, any line of contact between the distal section of the balloon and tissue is substantially continuously spanned by the ablation electrode, one or more of the sensing electrodes, or a combination thereof.
An air conditioner comprising: - a main unit having an enclosure defining an air outlet, the enclosure containing a heat exchanger and a first a first blower fan for generating a cool air or a warm air forming an airflow running out of the air outlet; and - a pair of fan units disposed on opposite sides of the air outlet, characterized in that the heat exchanger includes: - a front section disposed in a space between the fan units; and - a rear section having a length larger than that of the front section in a longitudinal direction of the air outlet, the rear section extending into at least one of spaces respectively defined behind the fan units, the fan units being configured to suck a room air and to blow the room air. - a main unit having an enclosure defining an air outlet, the enclosure containing a heat exchanger and a first a first blower fan for generating a cool air or a warm air forming an airflow running out of the air outlet; and - a pair of fan units disposed on opposite sides of the air outlet, - a front section disposed in a space between the fan units; and - a rear section having a length larger than that of the front section in a longitudinal direction of the air outlet, the rear section extending into at least one of spaces respectively defined behind the fan units,
Attachment device for attaching an add-on part to an anchoring base, wherein the attachment device comprises: a screw which is provided at least in portions with an exterior thread for screwing into the anchoring base; and a thermally isolating isolation body which is fixed on an end portion of the screw in a manner rotatable with respect to the screw and secured against displacement, and which comprises an attachment unit for attaching the add-on part when the screw is anchored in the anchoring base, and wherein the isolation body comprises an anti-rotation protection at its exterior side. a screw which is provided at least in portions with an exterior thread for screwing into the anchoring base; and a thermally isolating isolation body which is fixed on an end portion of the screw in a manner rotatable with respect to the screw and secured against displacement, and which comprises an attachment unit for attaching the add-on part when the screw is anchored in the anchoring base, and wherein the isolation body comprises an anti-rotation protection at its exterior side.
A communication control method for an air conditioner, wherein the air conditioner is connected with a bus via a communication chip, and the communication control method for an air conditioner comprises: acquiring (step 102) a voltage signal on the bus; determining (step 104) a voltage slope-rising edge and a voltage slope-falling edge in the voltage signal when the voltage signal satisfies a comparison condition of a power supply voltage of the communication chip and a reference voltage on the bus; performing (step 106) time comparison of the voltage signal to obtain a processed voltage signal when the voltage slope-rising edge and the voltage slope-falling edge satisfy a slope comparison condition; determining (step 108), from a data model library, a target data model that is consistent with the processed voltage signal; and outputting (step 110) data information corresponding to the target data model. acquiring (step 102) a voltage signal on the bus; determining (step 104) a voltage slope-rising edge and a voltage slope-falling edge in the voltage signal when the voltage signal satisfies a comparison condition of a power supply voltage of the communication chip and a reference voltage on the bus; performing (step 106) time comparison of the voltage signal to obtain a processed voltage signal when the voltage slope-rising edge and the voltage slope-falling edge satisfy a slope comparison condition; determining (step 108), from a data model library, a target data model that is consistent with the processed voltage signal; and outputting (step 110) data information corresponding to the target data model.
Stand for holding a Christmas tree in a vertical position, wherein the stand comprises a base body, wherein the base body is placed with a support surface on a ground during intended use, wherein the base body comprises a fixing device, wherein the fixing device comprises a plurality of retaining elements arranged around a vertical axis of the base body, wherein the retaining elements comprise a first engagement region facing the vertical axis of the base body, wherein the fixing device comprises a force transmission element, wherein at least one retaining element is displaceable between a initial position and a clamping position by actuating the force transmission element, wherein the stand comprises a trunk receiving body, wherein the trunk receiving body can be or is arranged in a receiving region of the base body surrounded by the retaining elements, wherein a trunk end portion of the Christmas tree can be arranged in the trunk receiving body, wherein the trunk receiving body comprises at least one abutment element having a second engagement region, wherein the abutment element is arranged and aligned in such a way that the first engagement region and the second engagement region can be brought into abutment against one another when the trunk receiving body is arranged as intended in the receiving region of the base body, wherein the trunk receiving body is fixable in the clamping position on the first engagement region of the retaining element by means of the fixing device, and wherein an inclination between a longitudinal axis of the trunk receiving body and the vertical axis of the base body is changeable in the initial position, characterised in that, in the intended arrangement within the receiving region of the base body and in the clamping position of the at least one retaining element, the trunk receiving body can be brought into abutment only against the first engagement region of the retaining element.
A multifunctional laryngoscope, comprising: a body comprising a proximal end and a distal end; a display screen mounted to the body; a camera stick coupled to the distal end of the body and configured to mate with a laryngoscope blade to removably couple the laryngoscope blade to the body such that a camera carried by the camera stick is disposed within a channel of the laryngoscope blade; and a port on a surface of the laryngoscope configured to mate with an introducer to removably couple the introducer to the body, wherein the port comprises an electrical connector that, when coupled to the introducer, provides a drive signal to one or more components of the introducer, and wherein the body comprises a housing and a motor disposed within the housing, and wherein the port provides the drive signal from the motor to drive one or more steering elements of the introducer. a body comprising a proximal end and a distal end; a display screen mounted to the body; a camera stick coupled to the distal end of the body and configured to mate with a laryngoscope blade to removably couple the laryngoscope blade to the body such that a camera carried by the camera stick is disposed within a channel of the laryngoscope blade; and a port on a surface of the laryngoscope configured to mate with an introducer to removably couple the introducer to the body, wherein the port comprises an electrical connector that, when coupled to the introducer, provides a drive signal to one or more components of the introducer, and wherein the body comprises a housing and a motor disposed within the housing, and wherein the port provides the drive signal from the motor to drive one or more steering elements of the introducer.
A three ply tissue product having a top and a bottom surface, the tissue product comprising a first creped ply, a second creped ply and a through-air dried ply, wherein the second creped ply is disposed between the first creped ply and the through-air dried ply and wherein the Surface Smoothness Ratio is greater than 1.4.
A cellular radio communications system comprising a cellular communications network and at least one mobile terminal, said terminal being provided with determining and reporting means for determining the moving speed of the terminal and reporting the determined terminal moving speed to said network for use as a basis for decisions for call or connection setups, characterized in that a terminal moving speed measure is included in the RRC connection request message sent at the establishment of said call or connection setup.
Torque converter assembly comprising a hub for connection with an input shaft of a gearbox, a lock-up clutch module for selective connection with a crankshaft of an internal combustion engine, a turbine module of a torque converter rigidly connected to said lock-up clutch module and rotatable with respect to said hub, and a spiral spring isolator to resiliently connect said hub with said lock-up clutch module and turbine module,said torque converter assembly comprising a radial supporting member (18, 22) for said turbine module on said hub, wherein said radial supporting member (18, 22) is radially housed in annular recess of said hub, characterized by comprising a shaped wall rigidly connecting said radial supporting member (18, 22) to an outer radial end portion of said spiral spring isolator.
An ultrasound system, comprising: an ultrasound data acquisition unit configured to acquire first ultrasound data for a first frame wherein compression is not applied to a target object and second ultrasound data for a second frame wherein compression is applied to the target object; and a processing unit configured to set windows on the respective first and second frames, move the windows in axial and lateral directions and perform a correlation operation between the first and second frames within the windows to compute displacements to determine pixel values of a third frame, the processing unit being further configured to form a strain image based on the computed displacements, characterized in that the processing unit is configured to select at least one of previously set windows at an (N-k) th row in said third frame by referring to current windows positioned at a N th row in an axial direction on the respective first and second frames, compute an initial displacement based on displacements corresponding to the selected at least one of windows, and determine a range for moving the current window on the second frame in the axial direction based on the computed initial displacement, wherein N is an integer greater than 1 and k is an integer greater than 1 but less than N. an ultrasound data acquisition unit configured to acquire first ultrasound data for a first frame wherein compression is not applied to a target object and second ultrasound data for a second frame wherein compression is applied to the target object; and a processing unit configured to set windows on the respective first and second frames, move the windows in axial and lateral directions and perform a correlation operation between the first and second frames within the windows to compute displacements to determine pixel values of a third frame, the processing unit being further configured to form a strain image based on the computed displacements, characterized in that the processing unit is configured to select at least one of previously set windows at an (N-k) th row in said third frame by referring to current windows positioned at a N th row in an axial direction on the respective first and second frames, compute an initial displacement based on displacements corresponding to the selected at least one of windows, and determine a range for moving the current window on the second frame in the axial direction based on the computed initial displacement, wherein N is an integer greater than 1 and k is an integer greater than 1 but less than N.
A vector or a mixture of at least two vectors comprising (a) a nucleic acid molecule encoding a protein of the INK4 family, under a cell-specific control of expression by an inducible, neuron-specific promoter; and (b) a nucleic acid molecule encoding a transactivator protein that is capable of binding to and activating the inducible, neuron-specific promoter of (a)in the presence or absence of an inducer, wherein the nucleic acid molecules (a) and (b) can be present in one vector or, as separate entities, in two vectors. (a) a nucleic acid molecule encoding a protein of the INK4 family, under a cell-specific control of expression by an inducible, neuron-specific promoter; and (b) a nucleic acid molecule encoding a transactivator protein that is capable of binding to and activating the inducible, neuron-specific promoter of (a)in the presence or absence of an inducer, wherein the nucleic acid molecules (a) and (b) can be present in one vector or, as separate entities, in two vectors.
A method for derivatizing an s-cis-diene compound with a Cookson-type derivatization reagent, the method comprising adding, in a reaction stopping step of stopping a derivatization reaction of the s-cis-diene compound, a decomposition inhibitor to inhibit decomposition of a derivative to be obtained, wherein the Cookson-type derivatization reagent is 4-(4'-dimethylaminophenyl)-1,2,4-triazoline-3,5-dione (DAPTAD), the s-cis-diene compound is vitamin D or a vitamin D metabolite, and the decomposition inhibitor is triethylamine.
A method for communication, the method comprising: in an optoelectronic transceiver (100, 200, 300, 400) integrated in a silicon photonics die, the optoelectronic transceiver (100, 200, 300, 400) comprising optical modulators (105A-105D, 205A-205D), photodetectors (111A-111D, 207A-207D), optical couplers (103, 117, 209A-209C), an optical source module coupled to the photonics die, and a fiber chip coupler coupled to the photonics die: characterized by communicating continuous wave optical signals from the optical source module to a first subset (209B λA) of the optical couplers (103, 117, 209A-209C) for processing signals in the optical modulators in accordance with a first communications protocol or to a second subset (209B λ1, λ2, λ3, λ4) of the optical couplers (103, 117, 209A-209C) for processing signals in the optical modulators in accordance with a second communications protocol; transmitting processed signals out of the photonics die utilizing a third subset of the optical couplers (103, 117, 209A-209C); in a first communication mode, receiving optical signals modulated in accordance with the first communications protocol from the fiber chip coupler coupled to a fourth subset (209B λA) of the optical couplers (103, 117, 209A-209C); in a second communication mode, receiving optical signals modulated in accordance with the second communications protocol from the fiber chip coupler coupled to a fifth subset (209B λ1, λ2, λ3, λ4) of the optical couplers (103, 117, 209A-209C); and generating electrical signals from the received modulated optical signals utilizing the photodetectors (111A-111D, 207A-207D). characterized by communicating continuous wave optical signals from the optical source module to a first subset (209B λA) of the optical couplers (103, 117, 209A-209C) for processing signals in the optical modulators in accordance with a first communications protocol or to a second subset (209B λ1, λ2, λ3, λ4) of the optical couplers (103, 117, 209A-209C) for processing signals in the optical modulators in accordance with a second communications protocol; transmitting processed signals out of the photonics die utilizing a third subset of the optical couplers (103, 117, 209A-209C); in a first communication mode, receiving optical signals modulated in accordance with the first communications protocol from the fiber chip coupler coupled to a fourth subset (209B λA) of the optical couplers (103, 117, 209A-209C); in a second communication mode, receiving optical signals modulated in accordance with the second communications protocol from the fiber chip coupler coupled to a fifth subset (209B λ1, λ2, λ3, λ4) of the optical couplers (103, 117, 209A-209C); and generating electrical signals from the received modulated optical signals utilizing the photodetectors (111A-111D, 207A-207D).