mhurhangee/patent-ind-claim-en huggingface dataset:
A mounting device comprising: a mounting head including a reference mark and a pickup member for picking up a component , the mounting head being configured to move a picked up component above a board (S); an imaging section configured to capture an image; and a control section configured to capture a first image of the reference mark under first imaging conditions at a first position at which the mounting head is stopped within an imaging range of the imaging section , capture a first image that includes the component picked up by the pickup member under second imaging conditions that are different from the first imaging conditions, and then move the mounting head and capture a second image of the reference mark under the first imaging conditions at a second position at which the mounting head is stopped within the imaging range, capture a second image that includes the component picked up by the pickup member under the second imaging conditions, and generate an image of the component picked up by the mounting head based on a positional relationship of the reference mark using the first image and the second image of the component . a mounting head including a reference mark and a pickup member for picking up a component , the mounting head being configured to move a picked up component above a board (S); an imaging section configured to capture an image; and a control section configured to capture a first image of the reference mark under first imaging conditions at a first position at which the mounting head is stopped within an imaging range of the imaging section , capture a first image that includes the component picked up by the pickup member under second imaging conditions that are different from the first imaging conditions, and then move the mounting head and capture a second image of the reference mark under the first imaging conditions at a second position at which the mounting head is stopped within the imaging range, capture a second image that includes the component picked up by the pickup member under the second imaging conditions, and generate an image of the component picked up by the mounting head based on a positional relationship of the reference mark using the first image and the second image of the component .
A method for producing medical, in particular dental fitting bodies with a specified or custom three-dimensionally curved outer contour or preform of the fitting body with a rough outer contour, in which a workpiece , from which the fitting body or its preform is produced, is machined in a material-removing manner by means of a tool engaging into the workpiece with one or a plurality of cutting edges arranged on a circumferential surface of the tool , wherein the tool has a tool axis and is rotated about the latter and wherein the tool and the workpiece execute a relative movement along a tool path orthogonal or inclined to the tool axis , wherein the tool path has directional components transverse to the run of the contour (3.1) to be produced, characterized in that the one or more cutting edges have a defined geometry and that the tool engages into the workpiece at a cutting arc angle alpha of the circumferential surface of less than 90° on average viewed over the entire tool path and at an insertion depth (ta, tb, tg) of at least twice the tool diameter (D) and that the machining of the workpiece occurs along a tool path with also directional components contrary to a machining direction following the outer contour or rough contour .
A blade assembly for use with a surgical saw having a drive assembly, the blade assembly comprising: a guide bar assembly comprising a pair of elongate and flat outer bars , and an elongate and flat inner bar disposed between said flat outer bars , each of said bars having a distal end, said guide bar assembly extending from the surgical saw and terminating at a distally directed face spaced from the surgical saw ; a saw blade movably attached to said guide bar assembly, said saw blade having a base and a head , said head including teeth which extend outwardly beyond said guide bar assembly and said distally directed face, and said saw blade having a thickness dimension defined transversely to the elongated direction of said guide bar assembly, said thickness dimension equal to or greater than the thickness of the guide bar assembly; and a connecting member having a first end configured to connect to the drive assembly of the surgical saw and a second end connected to said saw blade ; wherein said connecting member is configured so that actuation of the drive assembly results in a reciprocation of said connecting member to displace said saw blade so that said teeth oscillate back and forth across said distally directed face of said guide bar assembly, and wherein said distal end of said flat inner bar is recessed proximally relative to said distal ends of said outer bars so as to define a receiving space for the base between the distal ends of said outer bars which opens forwardly, said distal ends of said outer bars together defining the guide bar distally-directed face. a guide bar assembly comprising a pair of elongate and flat outer bars , and an elongate and flat inner bar disposed between said flat outer bars , each of said bars having a distal end, said guide bar assembly extending from the surgical saw and terminating at a distally directed face spaced from the surgical saw ; a saw blade movably attached to said guide bar assembly, said saw blade having a base and a head , said head including teeth which extend outwardly beyond said guide bar assembly and said distally directed face, and said saw blade having a thickness dimension defined transversely to the elongated direction of said guide bar assembly, said thickness dimension equal to or greater than the thickness of the guide bar assembly; and a connecting member having a first end configured to connect to the drive assembly of the surgical saw and a second end connected to said saw blade ; wherein said connecting member is configured so that actuation of the drive assembly results in a reciprocation of said connecting member to displace said saw blade so that said teeth oscillate back and forth across said distally directed face of said guide bar assembly, and wherein said distal end of said flat inner bar is recessed proximally relative to said distal ends of said outer bars so as to define a receiving space for the base between the distal ends of said outer bars which opens forwardly, said distal ends of said outer bars together defining the guide bar distally-directed face.
A tissue containment system, comprising a. a suction canister that defines an internal tissue collecting reservoir and includes a filter that defines a plurality of fine pores that are adapted to clog and restrict flow when the tissue collecting reservoir reaches capacity, b. means for manipulating tissue collected within the tissue collecting reservoir to modify the volume occupied by the tissue within the tissue collecting reservoir; c. a tissue containment insert removably positioned within the internal reservoir of the suction canister, the tissue containment insert including: (i) vent holes that enable vacuum to flow through the tissue containment insert, and (ii) extension fingers that extend proximally to allow for the securement of the filter and to grab onto in order to remove the tissue containment insert from the suction canister. a. a suction canister that defines an internal tissue collecting reservoir and includes a filter that defines a plurality of fine pores that are adapted to clog and restrict flow when the tissue collecting reservoir reaches capacity, b. means for manipulating tissue collected within the tissue collecting reservoir to modify the volume occupied by the tissue within the tissue collecting reservoir; c. a tissue containment insert removably positioned within the internal reservoir of the suction canister, the tissue containment insert including: (i) vent holes that enable vacuum to flow through the tissue containment insert, and (ii) extension fingers that extend proximally to allow for the securement of the filter and to grab onto in order to remove the tissue containment insert from the suction canister. (i) vent holes that enable vacuum to flow through the tissue containment insert, and (ii) extension fingers that extend proximally to allow for the securement of the filter and to grab onto in order to remove the tissue containment insert from the suction canister.
A method for predicting the survival time of a subject suffering from renal cell carcinoma comprising the steps of: i) quantifying the percent of CD8+ T cells co-expressing PD-1 and Tim-3 in a tumor tissue sample obtained from the subject, ii) comparing the percent quantified at step i) with its corresponding predetermined reference value and iii) concluding that the subject will have a short survival time when the percent of CD8+ T cells co-expressing PD-1 and Tim-3 is higher than its corresponding predetermined reference value or concluding that the subject will have a long survival time when the percent of CD8+ T cells co-expressing PD-1 and Tim-3 is lower than its corresponding predetermined reference value.
A method for controlling at least one actuator , the at least one actuator being connected via a wired network to a wired control unit configured to emit control, or setting, or wake-up signals intended for the at least one actuator , the at least one actuator comprising a first wired communication module , the first wired communication module being configured to communicate with the wired control unit via the wired network , the at least one actuator comprising a second wireless communication module (3"), the second communication module (3") being configured to be active or inactive, and a switch , connected to the second communication module (3"), the method comprising the following steps implemented by the actuator : - if the second communication module (3") is inactive, activation of the second communication module (3") triggered by the reception (EC101) of a wake-up signal emitted following an action (EC101bis, EC801) on the switch or on the wired control unit or on another element of the wired communication network , such as a configuration tool, provided with a network interface for its connection to the communication network and connected to the wired communication network , - emission (EC102) by the actuator of an activity signal; - reception (EC104) by the second communication module (3") of a connection signal received from a third communication module of a mobile terminal ; - establishment (EC104bis) of a wireless connection with the mobile terminal ; - reception (EC105) of a signal for setting the at least one actuator originating from the mobile terminal . - if the second communication module (3") is inactive, activation of the second communication module (3") triggered by the reception (EC101) of a wake-up signal emitted following an action (EC101bis, EC801) on the switch or on the wired control unit or on another element of the wired communication network , such as a configuration tool, provided with a network interface for its connection to the communication network and connected to the wired communication network , - emission (EC102) by the actuator of an activity signal; - reception (EC104) by the second communication module (3") of a connection signal received from a third communication module of a mobile terminal ; - establishment (EC104bis) of a wireless connection with the mobile terminal ; - reception (EC105) of a signal for setting the at least one actuator originating from the mobile terminal .
A mounting device for rotor blades of a wind energy plant, the mounting device comprising a load winch mechanism , a guide winch mechanism , a connecting mechanism for being connected to a rotor hub of the wind energy plant, and a guiding mechanism configured to be connected to the rotor blade , the connecting mechanism having a cable deflector for deflecting at least one load cable of a load cable assembly , the load cable being connected to a rotor blade root and accommodated on the load winch mechanism , and a stop mechanism for connecting at least one guide cable of a guide cable assembly to the rotor hub , the guide cable being accommodated on the guide winch mechanism , characterized in that a rotor blade detached from the rotor hub can be guided along a guide cable assembly , which runs between the guide winch mechanism and the stop mechanism , by means of the guiding mechanism connected to the rotor blade , at least the guide winch mechanism being adjustable in its horizontal distance h F from the wind energy plant.
A control valve for controlling flow of liquid in a heating and/or cooling installation, said control valve comprising: a pressure regulating arrangement configured for maintaining a substantially constant differential pressure between a first pressure (P1) in said control valve and a second pressure (P2) in said control valve , said pressure regulating arrangement comprises a movable throttle member that is urged by said first pressure (P1) to increase the flow resistance posed by the pressure regulating arrangement and that is urged by a resilient member and by the second pressure (P2) to decrease the flow resistance posed by said pressure regulating arrangement, said movable throttle member comprising a rolling diaphragm that interacts with a plurality of exit openings , said rolling diaphragm having a circular circumference attached to an annular body that is arranged in said control valve , said plurality of exit openings being formed radially through said annular body , characterized by at least one pressure communication channel extending in said annular body for communicating said first pressure (P1) from a first location in the control valve on one axial side of said rolling diaphragm to a second location in the control valve on the other axial side of said rolling diaphragm . a pressure regulating arrangement configured for maintaining a substantially constant differential pressure between a first pressure (P1) in said control valve and a second pressure (P2) in said control valve , said pressure regulating arrangement comprises a movable throttle member that is urged by said first pressure (P1) to increase the flow resistance posed by the pressure regulating arrangement and that is urged by a resilient member and by the second pressure (P2) to decrease the flow resistance posed by said pressure regulating arrangement, said movable throttle member comprising a rolling diaphragm that interacts with a plurality of exit openings , said rolling diaphragm having a circular circumference attached to an annular body that is arranged in said control valve , said plurality of exit openings being formed radially through said annular body , characterized by at least one pressure communication channel extending in said annular body for communicating said first pressure (P1) from a first location in the control valve on one axial side of said rolling diaphragm to a second location in the control valve on the other axial side of said rolling diaphragm .
Ventilator (BV) for the automated ventilation of a patient (PT), having - an expiratory port (EP) and an inspiratory port (IP) for the attachment of a ventilation tube (BS) directed towards the patient (PT) and supplying a breathing gas, - a breathing gas delivery unit (AGF), - at least one volume flow sensor (VS) for capturing a volume flow (V) of the breathing gas, - at least one breathing gas sensor (AS) for capturing a carbon dioxide concentration of the breathing gas, - at least one pressure sensor (DS) for capturing a pressure (P) of the breathing gas, - and at least one computer (R), wherein the computer (R) is configured to actuate the breathing gas delivery unit (AGF) as a function of the captured pressure (P) and of a preset desired pressure value (Pinsp, ΔP), characterized in that the computer (R) is moreover configured - to effect an adaptation of the desired pressure value (Pinsp, ΔP) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration - and further to effect an adaptation of a ventilation rate (RR, RRmin) as a function of the captured volume flow (V) and as a function of the captured carbon dioxide concentration. - an expiratory port (EP) and an inspiratory port (IP) for the attachment of a ventilation tube (BS) directed towards the patient (PT) and supplying a breathing gas, - a breathing gas delivery unit (AGF), - at least one volume flow sensor (VS) for capturing a volume flow (V) of the breathing gas, - at least one breathing gas sensor (AS) for capturing a carbon dioxide concentration of the breathing gas, - at least one pressure sensor (DS) for capturing a pressure (P) of the breathing gas, - and at least one computer (R), - to effect an adaptation of the desired pressure value (Pinsp, ΔP) as a function of the captured volume flow and as a function of the captured carbon dioxide concentration - and further to effect an adaptation of a ventilation rate (RR, RRmin) as a function of the captured volume flow (V) and as a function of the captured carbon dioxide concentration.
Laundry treatment appliance with a housing having a rear wall and a system spring-mounted within the housing , wherein the system has at least one element pointing in the direction of the rear wall , characterised in that a section of the rear wall corresponding to the element is formed by an elastic membrane , wherein the section corresponding to the element is arranged closest to the element on the rear wall and has a dimension which is greater than or equal to the outer contour of the element .
A process for hydrocracking, comprising: hydrocracking a hydrocarbon feed stream over a hydrocracking catalyst in the presence of hydrogen to provide a hydrocracked stream; separating the hydrocracked stream to provide a liquid hydrocracked stream; fractionating the liquid hydrocracked stream to provide a fractionated bottoms stream; stripping at least a portion of the bottom stream to provide a stripped stream rich in HPNAs and a stream lean in HPNAs; adsorbing HPNAs from the stripped stream to provide an adsorbed stream with an HPNA concentration; measuring the HPNA concentration of the adsorbed stream; and adjusting the HPNA concentration of the adsorbed stream; wherein the process comprises adsorbing the stripped stream over multiple adsorbent beds in series; wherein each adsorbent bed has a withdraw line in the bed and a control valve on the withdraw line; wherein the process comprises feeding the stripped stream to an upstream adsorbent bed of multiple adsorbent beds with an upstream control valve on an upstream withdraw line for the upstream adsorbent bed open and when the measured HPNA concentration of the adsorbed stream exceeds a predetermined value, closing the upstream control valve and opening a downstream control valve on a downstream withdraw line for a downstream adsorbent bed of the multiple adsorbent beds to adjust the HPNA concentration. hydrocracking a hydrocarbon feed stream over a hydrocracking catalyst in the presence of hydrogen to provide a hydrocracked stream; separating the hydrocracked stream to provide a liquid hydrocracked stream; fractionating the liquid hydrocracked stream to provide a fractionated bottoms stream; stripping at least a portion of the bottom stream to provide a stripped stream rich in HPNAs and a stream lean in HPNAs; adsorbing HPNAs from the stripped stream to provide an adsorbed stream with an HPNA concentration; measuring the HPNA concentration of the adsorbed stream; and adjusting the HPNA concentration of the adsorbed stream; wherein the process comprises adsorbing the stripped stream over multiple adsorbent beds in series; wherein each adsorbent bed has a withdraw line in the bed and a control valve on the withdraw line; wherein the process comprises feeding the stripped stream to an upstream adsorbent bed of multiple adsorbent beds with an upstream control valve on an upstream withdraw line for the upstream adsorbent bed open and when the measured HPNA concentration of the adsorbed stream exceeds a predetermined value, closing the upstream control valve and opening a downstream control valve on a downstream withdraw line for a downstream adsorbent bed of the multiple adsorbent beds to adjust the HPNA concentration.
A medical device configured for at least one of: deep brain stimulation (DBS), spinal cord stimulation (SCS), pelvic stimulation, gastric stimulation, peripheral nerve stimulation, functional electrical stimulation or delivery of pharmaceutical agents, insulin, pain relieving agents or anti-inflammatory agents to a target tissue site within a patient, the medical device comprising: a memory configured to store a representation of sensed electrical signals for a patient; and one or more processors configured to: maintain a counter tied to a clock used by the medical device to deliver electrical stimulation to a patient; obtain one or more representations of sensed electrical signals for the patient that are referenced to counts of the counter; identify, based on the one or more representations of the sensed electrical signals for the patient, a count of the counter at which stimulation is to be delivered to the patient; and deliver, to the patient, electrical stimulation based on the identified count of the counter. a memory configured to store a representation of sensed electrical signals for a patient; and one or more processors configured to: maintain a counter tied to a clock used by the medical device to deliver electrical stimulation to a patient; obtain one or more representations of sensed electrical signals for the patient that are referenced to counts of the counter; identify, based on the one or more representations of the sensed electrical signals for the patient, a count of the counter at which stimulation is to be delivered to the patient; and deliver, to the patient, electrical stimulation based on the identified count of the counter. maintain a counter tied to a clock used by the medical device to deliver electrical stimulation to a patient; obtain one or more representations of sensed electrical signals for the patient that are referenced to counts of the counter; identify, based on the one or more representations of the sensed electrical signals for the patient, a count of the counter at which stimulation is to be delivered to the patient; and deliver, to the patient, electrical stimulation based on the identified count of the counter.