mhurhangee/patent-ind-claim-en huggingface dataset:
A foot pedal for controlling a medical device, especially a dental device, comprising - a housing including a housing bottom , - a cover element which is mounted so as to be vertically displaceable in relation to the housing base along an actuating direction (B) and tiltable in relation to the housing base , and - a first switch for causing a first operability on the medical device and a second switch for causing a second operability on the medical device and - an actuating device which is vertically displaceable along the actuating direction (B) and, upon movement in the actuating direction (B), actuates the first switch within a first vertical offset section and actuates the second switch within a second vertical offset section, wherein the actuating device is configured such that it is located in a first state in the first height offset section and is located in a second state in the second height offset section, wherein the foot pedal is configured such that the actuating device is always arranged within the first height offset section when the angle of inclination (α) of the cover element can be predetermined, wherein, for making the transition from the first height offset section to the second height offset section more difficult, the actuating device is designed such that additional application of force is required for a transition between the first state and the second state, wherein the predeterminable angle of inclination (α) is the maximum possible angle of inclination of the cover element , which is defined by the housing base at least partially abutting the cover element on the one side and at least one radial projection of the housing abutting the cover element on the opposite side, and the actuating device is connected to the housing base via a first spring , wherein the actuating device comprises a first element and a second element , characterized in that a second spring is arranged between the first element and the second element , wherein the actuating device is configured such that, when moving the actuating device , the first spring is elastically deformed in the first height offset section and the second spring is elastically deformed in the second height offset section, wherein the second spring is not yet loaded in the first height offset section. - a housing including a housing bottom , - a cover element which is mounted so as to be vertically displaceable in relation to the housing base along an actuating direction (B) and tiltable in relation to the housing base , and - a first switch for causing a first operability on the medical device and a second switch for causing a second operability on the medical device and - an actuating device which is vertically displaceable along the actuating direction (B) and, upon movement in the actuating direction (B), actuates the first switch within a first vertical offset section and actuates the second switch within a second vertical offset section,
Closure device for sealing off building openings or spaces, in particular an object protection door , comprising a planar structural element , in particular a door leaf, comprising a fillable sealing element connected to the planar structural element , the fillable sealing element having at least three cohesive sealing portions , a first sealing portion being orientated along a base edge substantially parallel to a plane of the planar structural element , in such a way that, in a closed position of the closure device , the first sealing portion can be brought into tight contact with a floor , a second sealing portion and a third sealing portion each being orientated along a side edge and substantially parallel to a plane of the planar structural element, in such a way that, in the closed position , the second sealing portion and third sealing portion can be brought into tight contact with a frame element , in particular a doorframe, each in the same direction substantially transverse to the plane (X-Y) of the planar structural element , characterised in that the first sealing portion is arranged offset parallel to a plane (X-Y) extending through the second and the third sealing portion . comprising a fillable sealing element connected to the planar structural element , the fillable sealing element having at least three cohesive sealing portions , a first sealing portion being orientated along a base edge substantially parallel to a plane of the planar structural element , in such a way that, in a closed position of the closure device , the first sealing portion can be brought into tight contact with a floor , a second sealing portion and a third sealing portion each being orientated along a side edge and substantially parallel to a plane of the planar structural element, in such a way that, in the closed position , the second sealing portion and third sealing portion can be brought into tight contact with a frame element , in particular a doorframe, each in the same direction substantially transverse to the plane (X-Y) of the planar structural element , characterised in that the first sealing portion is arranged offset parallel to a plane (X-Y) extending through the second and the third sealing portion .
Brake disk comprising • at least one friction surface consisting of a main element , in particular a main element made of gray cast iron, and • at least one coating applied to at least parts of the friction surface , characterized in that • the coating contains at least tungsten-chromium carbide ((W, Cr) 2 C) and nickel-chromium (NiCr). • at least one friction surface consisting of a main element , in particular a main element made of gray cast iron, and • at least one coating applied to at least parts of the friction surface , characterized in that • the coating contains at least tungsten-chromium carbide ((W, Cr) 2 C) and nickel-chromium (NiCr).
Insulation displacement contact for contacting a conductor line of an insulated ribbon cable , the insulation displacement contact having a tubular body , the tubular body extending along a longitudinal axis (L) towards an open end , the open end comprising at least two separate cutting edges , wherein, on opposing side surfaces of the tubular body , slots are provided that extend to the open end , where they are located between the at least two cutting edges , wherein the slot on one of the opposing side surfaces is formed as a contacting slot and the slot on the other of the opposing side surfaces is formed as a positioning slot , wherein a clear width of the contacting slot is smaller than a clear width of the positioning slot , wherein the contacting slot has a first end opposite the open end and the positioning slot has a second end opposite the open end , and wherein the first end and second end are offset from one another along the longitudinal axis (L), characterized in that the first end is further spaced apart from the open end than the second end .
A speech recognition method, performed by a computing device, and comprising: obtaining speech information; performing framing on the speech information, to obtain a plurality of frames of speech segments; inputting the plurality of frames of speech segments into a weighted finite state transducer, WFST, network, to obtain language information of a maximum posterior probability corresponding to the plurality of frames of speech segments; determining , when the language information comprises a preset keyword, the beginning and ending positions of the candidate speech segment corresponding to the preset keyword in the speech information, wherein the candidate speech segment comprises at least one of the plurality of frames of speech segments; clipping the candidate speech segment from the speech information according to the beginning and ending positions; detecting whether the candidate speech segment comprises the preset keyword by using a machine learning model; and determining , upon determining that the candidate speech segment comprises the preset keyword, that the speech information comprises the preset keyword. obtaining speech information; performing framing on the speech information, to obtain a plurality of frames of speech segments; inputting the plurality of frames of speech segments into a weighted finite state transducer, WFST, network, to obtain language information of a maximum posterior probability corresponding to the plurality of frames of speech segments; determining , when the language information comprises a preset keyword, the beginning and ending positions of the candidate speech segment corresponding to the preset keyword in the speech information, wherein the candidate speech segment comprises at least one of the plurality of frames of speech segments; clipping the candidate speech segment from the speech information according to the beginning and ending positions; detecting whether the candidate speech segment comprises the preset keyword by using a machine learning model; and determining , upon determining that the candidate speech segment comprises the preset keyword, that the speech information comprises the preset keyword.
An auto-darkening filter comprising: a first liquid crystal sheet ; two polarizing sheets comprising a first polarizing sheet and a second polarizing sheet and separately disposed on two sides of the first liquid crystal sheet ; a driving circuit driving the first liquid crystal sheet ; characterized by an angle adjusting device ; wherein at least one of the two polarizing sheets is configured as a rotatable movable polarizing sheet , for changing an angle between transmission axes of the two polarizing sheets , the angle being adjusted by the angle adjusting device ; wherein the shape of the rotatable movable polarizing sheet is fitted with the shape of the first liquid crystal sheet such that when the rotatable movable polarizing sheet is the second polarizing sheet and when the second polarizing sheet is rotating, the rotatable movable polarizing sheet completely occludes the first liquid crystal sheet . a first liquid crystal sheet ; two polarizing sheets comprising a first polarizing sheet and a second polarizing sheet and separately disposed on two sides of the first liquid crystal sheet ; a driving circuit driving the first liquid crystal sheet ; characterized by an angle adjusting device ; wherein at least one of the two polarizing sheets is configured as a rotatable movable polarizing sheet , for changing an angle between transmission axes of the two polarizing sheets , the angle being adjusted by the angle adjusting device ; wherein the shape of the rotatable movable polarizing sheet is fitted with the shape of the first liquid crystal sheet such that when the rotatable movable polarizing sheet is the second polarizing sheet and when the second polarizing sheet is rotating, the rotatable movable polarizing sheet completely occludes the first liquid crystal sheet .
A method, in a radio network node , for managing a user equipment time offset measurement during mobility procedures of a user equipment , the method comprising: obtaining , from the user equipment or a serving radio network node , the user equipment time offset measurement; obtaining , from the user equipment or the serving radio network node , a user equipment mobility profile; managing the user equipment time offset measurement based on expected user equipment mobility behaviour derived from the user equipment mobility profile; and sending , to a target radio network node , an indication that the user equipment time offset measurement will become unreliable after a certain time with respect to a reference time, wherein the indication prompts the target radio network node to adapt one or more parameters, for detecting uplink signals, based on the indication. obtaining , from the user equipment or a serving radio network node , the user equipment time offset measurement; obtaining , from the user equipment or the serving radio network node , a user equipment mobility profile; managing the user equipment time offset measurement based on expected user equipment mobility behaviour derived from the user equipment mobility profile; and sending , to a target radio network node , an indication that the user equipment time offset measurement will become unreliable after a certain time with respect to a reference time, wherein the indication prompts the target radio network node to adapt one or more parameters, for detecting uplink signals, based on the indication.
A modelling material suitable for forming a photofabrication model in ink-jet stereo lithography, comprising: (i) a monofunctional ethylenically unsaturated monomer (A) free from a urethane group, a homopolymer of which has a glass transition temperature of ≥ 80°C; (ii) a polyfunctional ethylenically unsaturated monomer (B) free from a urethane group, a homopolymer of which has a glass transition temperature of ≥ 200°C; (iii) an ethylenically unsaturated monomer (C) which is a polyfunctional ethylenically unsaturated monomer (C1) having a urethane group in a concentration of 2.7-5.0 mmol/g; and (iv) a photopolymerization initiator (D). (i) a monofunctional ethylenically unsaturated monomer (A) free from a urethane group, a homopolymer of which has a glass transition temperature of ≥ 80°C; (ii) a polyfunctional ethylenically unsaturated monomer (B) free from a urethane group, a homopolymer of which has a glass transition temperature of ≥ 200°C; (iii) an ethylenically unsaturated monomer (C) which is a polyfunctional ethylenically unsaturated monomer (C1) having a urethane group in a concentration of 2.7-5.0 mmol/g; and (iv) a photopolymerization initiator (D).
Weather protection roof , comprising: at least one first scaffolding unit forming a first roof element, wherein the first scaffolding unit comprises at least one first rail element for reception of a flexible panel element; at least one second scaffolding unit forming a second roof element, wherein the second scaffolding unit comprises at least one second rail element for reception of the flexible surface element; wherein both scaffolding units are connected to one another at one of their end faces and form a ridge area ; at least one ridge rail element for receiving the flexible surface element, wherein the ridge rail element is arranged on the ridge region and is connected to the first scaffolding unit by a first mounting means and to the second scaffolding unit by a second mounting means in such a way that the rail elements of the scaffolding units and the ridge rail element form a continuous reception for the flexible surface element; characterized in that the mounting means are designed such that the ridge rail element can be arranged on the scaffolding units in a pre-assembly position of the weather protection roof and the weather protection roof can be brought from this pre-assembly position into a final assembly position in which the ridge rail element can be fixed in a final position by the mounting means, wherein the first mounting means and/or the second mounting means comprises a slotted hole screw connection . at least one first scaffolding unit forming a first roof element, wherein the first scaffolding unit comprises at least one first rail element for reception of a flexible panel element; at least one second scaffolding unit forming a second roof element, wherein the second scaffolding unit comprises at least one second rail element for reception of the flexible surface element; wherein both scaffolding units are connected to one another at one of their end faces and form a ridge area ; at least one ridge rail element for receiving the flexible surface element, wherein the ridge rail element is arranged on the ridge region and is connected to the first scaffolding unit by a first mounting means and to the second scaffolding unit by a second mounting means in such a way that the rail elements of the scaffolding units and the ridge rail element form a continuous reception for the flexible surface element; characterized in that the mounting means are designed such that the ridge rail element can be arranged on the scaffolding units in a pre-assembly position of the weather protection roof and the weather protection roof can be brought from this pre-assembly position into a final assembly position in which the ridge rail element can be fixed in a final position by the mounting means, wherein the first mounting means and/or the second mounting means comprises a slotted hole screw connection .
An apparatus for a rotor assembly with a rotational axis, the apparatus comprising: a rotor blade including an airfoil , a neck and an attachment ; the neck radially connecting the airfoil and the attachment ; the attachment extending axially between an attachment first axial side and an attachment second axial side , a first end portion of the attachment projecting axially out from the neck to the attachment first axial side , and a second end portion of the attachment projecting axially out from the neck to the attachment second axial side ; characterised by an attachment preform configured to form a base of the attachment ; and a sheet of material wrapped about the attachment preform to form a portion of the attachment and a portion of the airfoil . a rotor blade including an airfoil , a neck and an attachment ; the neck radially connecting the airfoil and the attachment ; the attachment extending axially between an attachment first axial side and an attachment second axial side , a first end portion of the attachment projecting axially out from the neck to the attachment first axial side , and a second end portion of the attachment projecting axially out from the neck to the attachment second axial side ; characterised by an attachment preform configured to form a base of the attachment ; and a sheet of material wrapped about the attachment preform to form a portion of the attachment and a portion of the airfoil .
An amplifier , comprising: an op-amp configured to receive at an input thereof a first electric current; a first MOS capacitor connected to the input and an output of the op-amp; characterized in that the amplifier further comprises an adjustable current source feeding a second electric current to the input, wherein the adjustable current source is adjustable by an electric signal; and wherein the adjustable current source comprises a second MOS capacitor and a third MOS capacitor in parallel to the second MOS capacitor; wherein a gate electrode of the second MOS capacitor is connected to the input and a bulk contact of the third MOS capacitor is connected to the input; and wherein a gate electrode of the third MOS capacitor is connected to the input of the op-amp and a bulk contact of the third MOS capacitor is connected to the electric signal. an op-amp configured to receive at an input thereof a first electric current; a first MOS capacitor connected to the input and an output of the op-amp; characterized in that the amplifier further comprises an adjustable current source feeding a second electric current to the input, wherein the adjustable current source is adjustable by an electric signal; and wherein the adjustable current source comprises a second MOS capacitor and a third MOS capacitor in parallel to the second MOS capacitor; wherein a gate electrode of the second MOS capacitor is connected to the input and a bulk contact of the third MOS capacitor is connected to the input; and wherein a gate electrode of the third MOS capacitor is connected to the input of the op-amp and a bulk contact of the third MOS capacitor is connected to the electric signal.
A patient interface apparatus for a ventilation treatment device, wherein the patient interface apparatus comprises a main body and a first moisture-extraction part , wherein a gas cavity is defined inside the main body and configured to communicate with the patient's mouth and/or nose, the first moisture-extraction part is disposed on the main body and comprises a first part communicating with the gas cavity and a second part located outside the main body , the first moisture-extraction part is configured to be capable of absorbing moisture inside of the gas cavity and conveying the moisture to the second part through the first part directly disposed inside the gas cavity , characterized in that the second part is configured to evaporate the moisture to the external environment in use.
Process for producing an electron emission electrode of an electron source, wherein the electron emission electrode has at least one emission tip , which is set up for releasing electrons into the environment, comprising the steps of: a) providing a main body of a brittly fracturing material, b) mechanical and/or thermal surface working of the main body to form the emission tip , wherein material is removed from the main body , at least around the emission tip , by brittle fracture and the emission tip is created with a rough surface, the surface roughness of which lies in the range R a = 0.3 - 2.5 μm, R z = 1.2 - 12 μm, where R a stands for the average roughness and R z stands for the average peak-to-valley height according to ISO 25178. a) providing a main body of a brittly fracturing material, b) mechanical and/or thermal surface working of the main body to form the emission tip , wherein material is removed from the main body , at least around the emission tip , by brittle fracture and the emission tip is created with a rough surface, the surface roughness of which lies in the range R a = 0.3 - 2.5 μm, R z = 1.2 - 12 μm, where R a stands for the average roughness and R z stands for the average peak-to-valley height according to ISO 25178.