mhurhangee/ep-ind-claims huggingface dataset:
A concealed hinge for rotatable moving a door, in particular a reinforced door, connected to a tubular support structure ( F, CF) which includes a rear counterframe anchored to a wall or a similar support and a front frame anchored to the counterframe, the hinge comprising a lower fixed half-hinge and an upper movable half-hinge rotatably coupled each other for rotating about a first longitudinal axis between an open position and a closed position; wherein said lower fixed half-hinge includes a box-shaped hinge body to be concealed within the tubular support structure ( F, CF) and anchorable thereto, said upper movable half-hinge including a pivot defining said first axis and a connecting plate anchorable to the door, connecting plate being reciprocally connected with said pivot to extend from the tubular support structure ( F, CF) in said open position and to concealedly retract within the tubular support structure ( F, CF) in said closed position; wherein said box-shaped hinge body includes a seat internally housing said pivot, characterized in that the pivot includes cam means rotating about said first longitudinal axis, said box-shaped hinge body further including at least one working chamber defining a second longitudinal axis substantially perpendicular to said first axis, said at least one working chamber including follower means interacting with said cam means for sliding along said second longitudinal axis between a first and a second end-stroke position, said follower means including at least one elastic counteracting element; wherein said cam means of said pivot includes at least one elongated appendix transversely extending with respect to said first axis to rotate within said seat, said follower means including at least one interface element having a first end interacting with said at least one elastic counteracting element and a second end ( 63") interacting with said at least one elongated appendix; wherein said elongate appendix is defined by a plate-shaped element removably insertable into a seat of said pivot.
A method of evaluating a subject's condition over time, the method comprising: determining a first MACE (major adverse cardiac event) risk score (MACERS) for a subject based upon, at least in part, the ratio of a second level of soluble Growth Stimulation-Expressed Gene 2 in the subject at a second time (ST2 T1) to a first level of soluble ST2 in the subject at a first time (ST2 T0), in addition to a weighted natural logarithm of a level of N-terminal brain-type natriuretic peptide (NT-proBNP) in the subject at a second time (NP T1) according to the following formula: First MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 1, wherein α is a weighting factor; wherein α is a weighting factor; determining a second MACERS for a subject based upon, at least in part, the ratio of a third level of soluble ST2 in the subject at a third time (ST2 T2) to the first level of soluble ST2 in the subject at the first time (ST2 T0), in addition to a weighted natural logarithm of a level of NT-proBNP in the subject at the third time (NP T2) according to the following formula: second MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 2, wherein α is a weighting factor; wherein α is a weighing factor; wherein a comparison of the second MACERS to the first MACERS indicates whether the subject's condition is declining, improving, or maintaining the same status. determining a first MACE (major adverse cardiac event) risk score (MACERS) for a subject based upon, at least in part, the ratio of a second level of soluble Growth Stimulation-Expressed Gene 2 in the subject at a second time (ST2 T1) to a first level of soluble ST2 in the subject at a first time (ST2 T0), in addition to a weighted natural logarithm of a level of N-terminal brain-type natriuretic peptide (NT-proBNP) in the subject at a second time (NP T1) according to the following formula: First MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 1, wherein α is a weighting factor; wherein α is a weighting factor; determining a second MACERS for a subject based upon, at least in part, the ratio of a third level of soluble ST2 in the subject at a third time (ST2 T2) to the first level of soluble ST2 in the subject at the first time (ST2 T0), in addition to a weighted natural logarithm of a level of NT-proBNP in the subject at the third time (NP T2) according to the following formula: second MACERS = ST 2 T 1 / ST 2 T 0 + αln NP T 2, wherein α is a weighting factor; wherein α is a weighing factor; wherein a comparison of the second MACERS to the first MACERS indicates whether the subject's condition is declining, improving, or maintaining the same status.
A method to determine an instantaneous resistance value of an electric circuit, characterized by: generating a synchronizing event at a zero-crossing point (14a-14c; 102a-102g; 220a-220c; 302a-g) of an AC source waveform; waiting a delay period (24; 208), the delay period based on a frequency of the AC source waveform; At the end of said delay period simultaneously measuring an in-situ instantaneous voltage of the circuit and measuring an in-situ instantaneous current of the circuit; and calculating the instantaneous resistance for the electric circuit at a portion of the AC source waveform selected by the delay period (24, 26; 106a-c; 208) based on the measured in-situ instantaneous voltage and the measured in-situ instantaneous current. generating a synchronizing event at a zero-crossing point (14a-14c; 102a-102g; 220a-220c; 302a-g) of an AC source waveform; waiting a delay period (24; 208), the delay period based on a frequency of the AC source waveform; At the end of said delay period simultaneously measuring an in-situ instantaneous voltage of the circuit and measuring an in-situ instantaneous current of the circuit; and calculating the instantaneous resistance for the electric circuit at a portion of the AC source waveform selected by the delay period (24, 26; 106a-c; 208) based on the measured in-situ instantaneous voltage and the measured in-situ instantaneous current.
An air conditioning apparatus comprising: an outdoor unit; an indoor unit including an air blowing fan, an air outlet for blowing out air fed by the air blowing fan, and a refrigerant leakage sensor configured to detect a refrigerant; a refrigerant pipe (11, 12, 13) connecting the outdoor unit and the indoor unit; an opening/closing device (101, 102) configured to open and close the refrigerant pipe, characterized in that the indoor unit includes an air direction plate capable of opening and closing the air outlet, and in that the air conditioning apparatus comprises a control unit configured to close the opening/closing device (101, 102) and drive the air blowing fan for a predetermined time when the refrigerant leakage sensor detects a refrigerant concentration higher than a predetermined value, then stop the air blowing fan and close the air direction plate when the refrigerant leakage sensor detects a refrigerant concentration higher than the predetermined value, then open the air direction plate when a refrigerant concentration detected by the refrigerant leakage sensor remains substantially equal to or decreases from the concentration previously detected, and then determine that detection of the refrigerant leakage sensor is erroneous detection when a refrigerant concentration detected by the refrigerant leakage sensor becomes higher than the concentration previously detected. an outdoor unit; an indoor unit including an air blowing fan, an air outlet for blowing out air fed by the air blowing fan, and a refrigerant leakage sensor configured to detect a refrigerant; a refrigerant pipe (11, 12, 13) connecting the outdoor unit and the indoor unit; an opening/closing device (101, 102) configured to open and close the refrigerant pipe, characterized in that the indoor unit includes an air direction plate capable of opening and closing the air outlet, and in that the air conditioning apparatus comprises a control unit configured to close the opening/closing device (101, 102) and drive the air blowing fan for a predetermined time when the refrigerant leakage sensor detects a refrigerant concentration higher than a predetermined value, then stop the air blowing fan and close the air direction plate when the refrigerant leakage sensor detects a refrigerant concentration higher than the predetermined value, then open the air direction plate when a refrigerant concentration detected by the refrigerant leakage sensor remains substantially equal to or decreases from the concentration previously detected, and then determine that detection of the refrigerant leakage sensor is erroneous detection when a refrigerant concentration detected by the refrigerant leakage sensor becomes higher than the concentration previously detected.
A method comprising: sending (210, 320) to a target base station a handover request message including a proposed common identifier for a device-to-device pair and a proposed allocation of radio resources for the device-to-device pair; receiving (215, 330), from the target base station in response to the handover request message, a handover request reply message including a confirmation of the proposed allocation and of the proposed common identifier; sending (220, 350) to a first device of the device-to-device pair a handover command including the proposed allocation and the proposed common identifier; receiving, from a second device of the device-to-device pair, a measurement report representative of the target base station; and determining whether to initiate a handover of the second device to the target base station, wherein when the handover is initiated, the first device of the device-to-device pair and the second device of the device-to-device pair are handed over to the target base station. sending (210, 320) to a target base station a handover request message including a proposed common identifier for a device-to-device pair and a proposed allocation of radio resources for the device-to-device pair; receiving (215, 330), from the target base station in response to the handover request message, a handover request reply message including a confirmation of the proposed allocation and of the proposed common identifier; sending (220, 350) to a first device of the device-to-device pair a handover command including the proposed allocation and the proposed common identifier; receiving, from a second device of the device-to-device pair, a measurement report representative of the target base station; and determining whether to initiate a handover of the second device to the target base station, wherein when the handover is initiated, the first device of the device-to-device pair and the second device of the device-to-device pair are handed over to the target base station.
A facade element having a first insulating glass unit and at least one adjacently arranged second insulating glass unit, wherein the two insulating glass units (1, 2) are connected together by their adjoining edges in an abutting region by means of a transparent adhesive connection, wherein the adhesive connection is formed by a two-component silicone material introduced in liquid form into a joint area defined in the abutting region of the adjoining edges and is of crystal-clear transparency after curing, and wherein the adhesive connection is formed without any gas bubbles, wherein the facade element comprises a plurality of insulating glass units (1, 2) connected together by means of the crystal-clear adhesive connection so as to form a large-scale and transparent facade element.
A micro projector, including: a projection component configured to project video content; and at least one audio play component configured to play audio accompanying the video content, wherein the at least one audio play component is detachably mounted to the projection component via a magnetic attraction mechanism. a projection component configured to project video content; and at least one audio play component configured to play audio accompanying the video content, wherein the at least one audio play component is detachably mounted to the projection component via a magnetic attraction mechanism.
In-vitro method for the label-free determination of a cell type of a cell in a biological sample, wherein a microscopy device detects a height profile of the cell relative to a carrier plate, characterized by the steps carried out by a cell analysis device: - determining a cell compartment (12, 12', 12") of the cell using the detected height profile (18, S2), - determining a predetermined quantitative cell feature using the determined cell compartment (12, 12', 12", S3) and using the height profile, - determining the cell type of the cell using the determined quantitative cell feature. - determining a cell compartment (12, 12', 12") of the cell using the detected height profile (18, S2), - determining a predetermined quantitative cell feature using the determined cell compartment (12, 12', 12", S3) and using the height profile, - determining the cell type of the cell using the determined quantitative cell feature.
Heat exchanger, in particular for use in a distillation system, having an installation frame (6, 8) and a base unit which is designed as a stack of multiple plates, wherein the plates of the base unit have an embossment for the purpose of forming fluid channels, wherein at least one fluid channel is configured for conducting a fluid between at least two plates, wherein the plates consist of a thermally conductive plastic, wherein at least one plate of the base unit has at least one region with reduced thermal conductivity and at least one region with increased thermal conductivity, characterized in that the plates of the base unit are produced from a thermally conductive polymer with at least one filling material in the form of filler particles, and wherein the thermal conductivity of the regions (30, 32) of the plates of the base unit is set by way of alignment of filler particles and/or by way of a filler-particle density.
A method for implementing a PMG "permanent magnet generator" variable speed constant frequency generating system on an aircraft including an aircraft engine, the method comprising: receiving an AC power from the PMG at an AC/DC conversion stage, the received power being proportional to a rate of rotation of the aircraft engine; converting the AC power to DC power in the AC/DC conversion stage; receiving a sensed DC voltage output by the AC/DC conversion stage; providing a DC voltage to a DC/AC conversion stage; and providing, by a control processor, a control signal to the DC/AC conversion stage to control a frequency and a voltage of an output signal of the DC/AC conversion stage, and receiving, at the control processor, a feedback signal to modify the output signal of the DC/AC conversion stage by adjusting the control signal provided to the DC/AC conversion stage, wherein the feedback signal includes voltage and current of the output signal of the DC/AC conversation stage; the method characterized by comprising: receiving power from the PMG at the control processor to power the control processor; receiving, at the control processor, a sensed PMG voltage and current signal of the PMG from a PMG voltage and current sensor coupled to the PMG. received power being proportional to a rate of rotation of the aircraft engine; converting the AC power to DC power in the AC/DC conversion stage; receiving a sensed DC voltage output by the AC/DC conversion stage; providing a DC voltage to a DC/AC conversion stage; and providing, by a control processor, a control signal to the DC/AC conversion stage to control a frequency and a voltage of an output signal of the DC/AC conversion stage, and receiving, at the control processor, a feedback signal to modify the output signal of the DC/AC conversion stage by adjusting the control signal provided to the DC/AC conversion stage, wherein the feedback signal includes voltage and current of the output signal of the DC/AC conversation stage; the method characterized by comprising: receiving power from the PMG at the control processor to power the control processor; receiving, at the control processor, a sensed PMG voltage and current signal of the PMG from a PMG voltage and current sensor coupled to the PMG.
Device for transporting textile articles, preferably items of clothing, hanging on carriers, having a conveying path which has at least one support section on which the carriers are able to be moved along the conveying path in a transport direction, and at least one conveying section which is able to be driven in a transport direction, and having entrainment elements which are disposed so as to be spaced apart on the conveying section, wherein individual entrainment elements are able to be coupled in a targeted manner to carriers that are to be moved in the transport direction along the support section, characterized in that the entrainment elements have entrainment element members which are formed by a plurality of entrainment element parts (31, 32) that are connected by a damping seam in such a manner that upon connecting the entrainment element parts (31, 32) a permanently single-piece entrainment element member is created by the damping seam, wherein the damping seam in the region of a gap contributes towards forming part of a front side and of a rear side of the entrainment element member.
An apparatus for implantation of an annuloplasty implant into the heart of a patient, the apparatus comprising: a unitary tube (102, 202, 280); and an annuloplasty implant guide assembly (112, 140, 150, 212) and a guide assembly controller; wherein the annuloplasty implant guide assembly (112, 140, 150, 212) is attached to the distal end of the unitary tube (102, 202, 280), the unitary tube (102, 202, 280) comprises a proximal tube portion, a distal tube portion (108, 208) and a transition region disposed there between; the unitary tube (102, 202, 280) further comprising an exterior surface defining an outside diameter, an interior surface defining an inside diameter of the unitary tube (102, 202, 280), wherein the proximal tube portion includes the guide assembly controller which is operatively connected to the annuloplasty implant guide assembly (112, 140, 150, 212) by a control mechanism that extends from the guide assembly controller through the interior of the unitary tube (102, 202, 280) to the annuloplasty implant guide assembly (112, 140, 150, 212) which includes a suturing sub-assembly system configured to deploy a plurality of suture hooks (238, 294) being configured to connect the annuloplasty implant to tissue within the heart, wherein the annuloplasty implant guide assembly (112, 140, 150, 212) further comprises a clamping assembly that facilitates resizing of a valve annulus, the clamping assembly comprising a top clamp and a bottom clamp, wherein the clamping assembly between the top clamp and the bottom clamp facilitates reduction of spacing between the top clamp and the bottom clamp, characterized in that the suturing sub-assembly is positioned between the top clamp and the bottom clamp, and wherein the clamping assembly is used to pinch the native annulus of the patient so that the suturing device is stable during suturing. a unitary tube (102, 202, 280); and an annuloplasty implant guide assembly (112, 140, 150, 212) and a guide assembly controller;
An image reading apparatus including an original tray, setting means for setting a type of an original, conveyance control means for controlling conveyance of the original by conveying means based on the type of the original set by the setting means, and reading means for reading an image on the original conveyed by the conveying means, comprising: detecting means for detecting that the original has been placed on the original tray; characterized in that the image reading apparatus is further comprising display means for displaying information for setting a type of the original at a predetermined timing on condition that the detecting means detects that the original has been placed on the original tray, wherein in a case where the type set by the information displayed by the display means is a first type, the conveyance control means cause the conveying means to convey the original at a first conveying speed, and in a case where the type set by the information displayed by the display means is a sheet thicker than the first type, the conveyance control means cause the conveying means to convey the original at a second conveying speed lower than the first conveying speed. detecting means for detecting that the original has been placed on the original tray; characterized in that the image reading apparatus is further comprising display means for displaying information for setting a type of the original at a predetermined timing on condition that the detecting means detects that the original has been placed on the original tray,
A method for providing a cleaned signal in a capacitive touch sensor, the capacitive touch sensor including a first array of conductors and a second array of conductors, wherein the conductors in the first array are arranged substantially in parallel with one another, and the conductors in the second array are arranged substantially in parallel with one another, and wherein the conductors in the first array are positioned substantially perpendicular to the conductors in the second array to form a matrix, the method comprising: determining a phase of periodic noise on an input of the capacitive touch sensor; generating a periodic excitation signal having a phase that is locked to the determined phase of the periodic noise; applying the periodic excitation signal during a measurement period to an excited conductor in the first array; while the excitation signal is applied, detecting a response signal on a responding conductor in the second array, wherein a sample of the response signal is taken once during the measurement period at the same instant in time relative to the time-varying excitation signal, and generating, based on the detected response signal, a value indicative of a measured capacitance between the excited conductor and the responding conductor; accessing a threshold value stored in a data store, where the threshold value includes a constant offset that reflects the effect of the periodic noise on the response signal; determining whether the response signal corresponds to a touch based on a difference between the value and the threshold value; and producing a signal reflecting results of the determination of whether the response signal corresponds to a touch, wherein different threshold values are accessed for different sensor frames, a sensor frame being a time interval to measure capacitance values of the matrix. determining a phase of periodic noise on an input of the capacitive touch sensor; generating a periodic excitation signal having a phase that is locked to the determined phase of the periodic noise; applying the periodic excitation signal during a measurement period to an excited conductor in the first array; while the excitation signal is applied, detecting a response signal on a responding conductor in the second array, wherein a sample of the response signal is taken once during the measurement period at the same instant in time relative to the time-varying excitation signal, and generating, based on the detected response signal, a value indicative of a measured capacitance between the excited conductor and the responding conductor; accessing a threshold value stored in a data store, where the threshold value includes a constant offset that reflects the effect of the periodic noise on the response signal; determining whether the response signal corresponds to a touch based on a difference between the value and the threshold value; and producing a signal reflecting results of the determination of whether the response signal corresponds to a touch, wherein different threshold values are accessed for different sensor frames, a sensor frame being a time interval to measure capacitance values of the matrix.